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A review study on the design and control of optimised greenhouse environments

Published online by Cambridge University Press:  15 June 2023

Renuka Vinod Chimankare Open the ORCID record for Renuka Vinod Chimankare [Opens in a new window] ,
Subhra Das ,
Karamjit Kaur  and
Dhiraj Magare
Renuka Vinod Chimankare*
Affiliation:
Mumbai University, Navi Mumbai, Maharashtra, India
Subhra Das
Affiliation:
Amity University, Gurgaon, Haryana, India
Karamjit Kaur
Affiliation:
Amity University, Gurgaon, Haryana, India
Dhiraj Magare
Affiliation:
DY Patil Deemed to be University, Navi Mumbai, Maharashtra, India
*
Corresponding author: Renuka Vinod Chimankare, Email: renukachimankare@ternaengg.ac.in
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Abstract

Greenhouses are inflated structures with transparent covering that are used to grow crops under controlled climatic conditions. Crops are protected from extreme climate-related events by being enclosed. Furthermore, the greenhouse design ratio impacts the temperature and humidity distribution profile uniformity as well as the greenhouse. As a result, by effectively designing the greenhouse structure, building materials, dimensions, and shapes, the cost of cooling management strategies can be reduced. Structures with changed arch shapes showed to be more effective at reducing greenhouse cooling demands in hot areas. To demonstrate the tropical region’s inherent capabilities for generating a proper atmosphere for plant development, the optimal temperature, humidity, light, and PH for greenhouse production of crops were supplied. Greenhouse cooling systems are dominated by local environmental characteristics that have an immediate impact on their indoor climatic conditions. Photovoltaic systems in greenhouses have proven technological capacity in real-world settings in this area. This could increase the energy efficiency of some agrivoltaic greenhouse design options.

Keywords

Agrivoltaicsdesign and orientationgreenhousegreenhouse microclimate controloptimisation techniquesphotovoltaicssimulation tool
Type
Research Article
Information
Journal of Tropical Ecology , Volume 39 , 2024 , e26
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Copyright
© The Author(s), 2023. Published by Cambridge University Press

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References

Afzali, S (2021) Development and implementation of optimal supplemental lighting control strategies in greenhouses (Doctoral dissertation, University of Georgia).Google Scholar
Afzali, S, Mosharafian, S, van Iersel, MW and Mohammadpour Velni, J (2021a) Development and implementation of an IoT-Enabled optimal and predictive lighting control strategy in greenhouses. Plants 10(12), 2652.CrossRefGoogle ScholarPubMed
Afzali, S, Mosharafian, S, van Iersel, MW and Velni, JM (2021b) Optimal lighting control in greenhouses equipped with high-intensity discharge lamps using reinforcement learning. In American Control Conference (ACC), IEEE, 1414–1419. https://doi.org/10.23919/acc50511.2021.9482964 CrossRefGoogle Scholar
Ahamed, MS, Guo, H and Tanino, K (2020) Modeling heating demands in a Chinese-style solar greenhouse using the transient building energy simulation model TRNSYS. Journal of Building Engineering 29, 101114.CrossRefGoogle Scholar
Aissa, M and Boutelhig, A (2021) CFD comparative study between different forms of solar greenhouses and orientation effect. Journal Homepage 39(2), 433–440. http://iieta.org/journals/ijht Google Scholar
Al-Helal, I, Picuno, P, Alsadon, AA, Ibrahim, A, Shady, M and Abdel-Ghany, AM (2022) Effect of shape, orientation and aging of a plastic greenhouse cover on the degradation rate of the optical properties in arid climates. Applied Sciences 12(5), 2709.CrossRefGoogle Scholar
Alharbi, A, Campen, J, Sharaf, M, de Zwart, F, Voogt, W, Scheffers, K, Tsafaras, I, Abdelaziz, ME, Babiker, O, Gruda, N and Qaryouti, M (2021) Effect of clear and defuse glass covering materials on fruit yield and energy efficiency of greenhouse cucumber grown in hot climate. Acta Scientiarum Polonorum, Hortorum Cultus 20(3), 37–44.CrossRefGoogle Scholar
Aroca-Delgado, R, Pérez-Alonso, J, Callejón-Ferre, ÁJ and Díaz-Pérez, M (2019) Morphology, yield and quality of greenhouse tomato cultivation with flexible photovoltaic rooftop panels (Almería-Spain). Scientia Horticulturae 257, 108768.CrossRefGoogle Scholar
Azaizia, Z, Koolz, S, Hamdi, I, Elkhal, W and Guizani, AA (2020) Experimental study of a new mixed mode solar greenhouse drying system with and without thermal energy storage for pepper. Renewable Energy 145, 1972–1984.CrossRefGoogle Scholar
Bazgaou, A, Fatnassi, H, Bouharroud, R, Elame, F, Ezzaeri, K, Gourdo, L, Wifaya, A, Demrati, H, Tiskatine, R, Bekkaoui, A and Aharoune, A (2020) Performance assessment of combining rock-bed thermal energy storage and water filled passive solar sleeves for heating Canarian greenhouse. Solar Energy 198, 8–24.CrossRefGoogle Scholar
Benavides, PT, Lee, U and Zare-Mehrjerdi, O (2020) Life cycle greenhouse gas emissions and energy use of polylactic acid, bio-derived polyethylene, and fossil-derived polyethylene. Journal of Cleaner Production 277, 124010.CrossRefGoogle Scholar
Briga-Sá, A, Paiva, A, Lanzinha, JC, Boaventura-Cunha, J and Fernandes, L (2021) Influence of air vents management on trombe wall temperature fluctuations: an experimental analysis under real climate conditions. Energies 14(16), 5043.CrossRefGoogle Scholar
Cai, W, Wei, R, Xu, L and Ding, X (2021) A method for modelling greenhouse temperature using gradient boost decision tree. Information Processing in Agriculture 9, 343–354.CrossRefGoogle Scholar
Choi, KY, Kim, SB, Bae, S, Yoon, JH, Yun, JH and Kim, N (2020) Effect of polycarbonate covering sheet on greenhouse indoor environments and growth behavior of cherry tomatoes. Elastomers and Composites 55(2), 114–119.Google Scholar
De Jesus Guimarães, J, de Sousa, FGG, Román, RMS, Dal Pai, A, Rodrigues, SA and Sarnighausen, VCR (2021) Effect of irrigation water pH on the agronomic development of hops in protected cultivation. Agricultural Water Management 253, 106924.CrossRefGoogle Scholar
Dewi, VAK, Setiawan, BI, Waspodo, RSB and Liyantono, L (2020) Microclimate condition in the natural ventilated greenhouse. Jurnal Tanah dan Iklim 44(1), 31–36.CrossRefGoogle Scholar
Engler, N and Krarti, M (2021) Review of energy efficiency in controlled environment agriculture. Renewable and Sustainable Energy Reviews 141, 110786.CrossRefGoogle Scholar
Evans, D, Parkes, D, Dooner, M, Williamson, P, Williams, J, Busby, J, He, W, Wang, J and Garvey, S (2021) Salt cavern exergy storage capacity potential of UK massively bedded halites, using Compressed Air Energy Storage (CAES). Applied Sciences 11(11), 4728.CrossRefGoogle Scholar
Fernández, EF, Villar-Fernández, A, Montes-Romero, J, Ruiz-Torres, L, Rodrigo, PM, Manzaneda, AJ and Almonacid, F (2022) Global energy assessment of the potential of photovoltaics for greenhouse farming. Applied Energy 309, 118474.CrossRefGoogle Scholar
Fleuchaus, P, Schüppler, S, Bloemendal, M, Guglielmetti, L, Opel, O and Blum, P (2020) Risk analysis of high-temperature aquifer thermal energy storage (HT ATES). Renewable and Sustainable Energy Reviews 133, 110153.CrossRefGoogle Scholar
Ghoreishi-Madiseh, SA, Fahrettin Kuyuk, A, Rodrigues de Brito, MA, Baidya, D, Torabigoodarzi, Z and Safari, A (2019) Application of borehole thermal energy storage in waste heat recovery from diesel generators in remote cold climate locations. Energies 12(4), 656.CrossRefGoogle Scholar
Gluyas, JG, Adams, CA and Wilson, IAG (2020) The theoretical potential for large-scale underground thermal energy storage (UTES) within the UK. Energy Reports 6, 229–237.CrossRefGoogle Scholar
Gondal, AH, Hussain, I, Ijaz, AB, Zafar, A, Ch, BI, Zafar, H, Sohail, MD, Niazi, H, Touseef, M, Khan, AA and Tariq, M (2021) Influence of soil pH and microbes on mineral solubility and plant nutrition: a review. International Journal of Agriculture and Biological Sciences 5(1), 71–81.Google Scholar
Gonocruz, RA, Nakamura, R, Yoshino, K, Homma, M, Doi, T, Yoshida, Y and Tani, A (2021) Analysis of the rice yield under an Agrivoltaic system: a case study in Japan. Environments 8(7), 65.CrossRefGoogle Scholar
Gorjian, S, Ebadi, H, Najafi, G, Chandel, SS and Yildizhan, H (2021). Recent advances in net-zero energy greenhouses and adapted thermal energy storage systems. Sustainable Energy Technologies and Assessments 43, 100940.CrossRefGoogle Scholar
Hassanien, RHE, Li, M and Tang, Y (2018) The evacuated tube solar collector assisted heat pump for heating greenhouses. Energy and Buildings 169, 305–318.CrossRefGoogle Scholar
Hou, Y, Li, A, Li, Y, Jin, D, Tian, Y, Zhang, D, Wu, D, Zhang, L and Lei, W (2021) December Analysis of microclimate characteristics in solar greenhouses under natural ventilation. In Building Simulation Tsinghua University Press 14(6), 1811–1821.CrossRefGoogle Scholar
Hoyo, A, Moreno, JC, Guzman, JL and Rodríguez, F (2019) Robust QFT-based feedback linearization controller of the greenhouse diurnal temperature using natural ventilation. IEEE Access 7, 64148–64161.CrossRefGoogle Scholar
Hwang, S, Yun, R and Heo, J (2020) Transient modeling of seasonal borehole thermal energy storage system during heat energy storing process. International Journal of Air-Conditioning and Refrigeration 28(01), 2050005.CrossRefGoogle Scholar
Kim, HK, Lee, SY, Kwon, JK and Kim, YH (2022) Evaluating the effect of cover materials on greenhouse microclimates and thermal performance. Agronomy 12(1), 143.CrossRefGoogle Scholar
Kim, HK, Ryou, YS, Kim, YH, Lee, TS, Oh, SS, Lee, WS and Kim, YH (2019) Development of structural model and analysis of design factors for small greenhouse of urban agriculture. Journal of Bio-Environment Control 28(4), 388–395.CrossRefGoogle Scholar
Kumar, N, Gupta, SK and Sharma, VK (2021) Application of phase change material for thermal energy storage: an overview of recent advances. Materials Today: Proceedings 44, 368–375.Google Scholar
Kumpanalaisatit, M, Setthapun, W, Sintuya, H and Jansri, SN (2022) Efficiency improvement of ground-mounted solar power generation in agrivoltaic system by cultivation of Bok Choy (Brassica rapa subsp. chinensis L.) Under the Panels. International Journal of Renewable Energy Development 11(1), 103.CrossRefGoogle Scholar
Lalanne, P and Byrne, P (2019) Underground pumped-hydro energy storage using carbon dioxide in shallow lined rock caverns; Application to long-duration storage as the energy conversion of a pumped thermal electricity storage. In 36th European PV Solar Energy Conference and Exhibition, Marseille, France. https://hal-univ-rennes1.archives-ouvertes.fr/hal-02389170 (accessed 2 Dec 2019).Google Scholar
Liu, A, Xu, D, Henke, M, Zhang, Y, Li, Y, Liu, X and Li, T (2022) Determination of the optimal orientation of Chinese solar greenhouses using 3D light environment simulations. Remote Sensing 14(4), 912.CrossRefGoogle Scholar
Liu, R, Li, M, Guzmán, JL and Rodriguez, F (2021) A fast and practical one-dimensional transient model for greenhouse temperature and humidity. Computers and Electronics in Agriculture 186, 106186.CrossRefGoogle Scholar
Ma, D, Carpenter, N, Maki, H, Rehman, TU, Tuinstra, MR and Jin, J (2019) Greenhouse environment modeling and simulation for microclimate control. Computers and Electronics in Agriculture 162, 134–142.CrossRefGoogle Scholar
Magadley, E, Kabha, R, Dakka, M, Teitel, M, Friman-Peretz, M, Kacira, M, Waller, R and Yehia, I (2022) Organic photovoltaic modules integrated inside and outside a polytunnel roof. Renewable Energy 182, 163–171.CrossRefGoogle Scholar
McCartney, L, Orsat, V and Lefsrud, MG (2018) An experimental study of the cooling performance and airflow patterns in a model Natural Ventilation Augmented Cooling (NVAC) greenhouse. Biosystems Engineering 174, 173–189.CrossRefGoogle Scholar
Mellalou, A, Riad, W, Mouaky, A, Bacaoui, A and Outzourhit, A (2021) Optimum design and orientation of a greenhouse for seasonal winter drying in Morocco under constant volume constraint. Solar Energy 230, 321–332.CrossRefGoogle Scholar
Savage, MJ (2014) Microclimate conditions in ventilated wet-walled greenhouses in a subtropical climate: spatial variability. South African Journal of Plant and Soil 31(3), 137–143.CrossRefGoogle Scholar
Montoya-Ríos, AP, García-Mañas, F, Guzmán, JL and Rodríguez, F (2020) Simple tuning rules for feedforward compensators applied to greenhouse daytime temperature control using natural ventilation. Agronomy 10(9), 1327.CrossRefGoogle Scholar
Nabati, J, Ahmadi-Lahijani, MJ, Goldani, M, Nezami, A, Oskoueian, A, Hosinaiyan, M and Mohammadi, M (2021) Lowering medium pH improves tolerance of tomato (Lycopersicon esculentum) plants to long-term salinity exposure. Journal of Plant Nutrition 44(13), 1853–1868.CrossRefGoogle Scholar
Ndirangu, SN, Kanali, CL, Ronoh, EK, Langat, VK, Roskilly, AP, Royapoor, M and Laidler, P (2022) Performance of a flexible PV film technology as an auxiliary energy source in a solar-electric hybrid greenhouse dryer. Journal of Sustainable Research in Engineering 7(1), 1–10.Google Scholar
Offor, JN (2022) Investigation of the influence of natural ventilation on indoor comfort of occupants of public hospital wards within the hot-humid climates. Irish International Journal of Engineering and Applied Sciences 6(2), 1–11. https://aspjournals.org/Journals/index.php/iijeas/article/view/31 (accessed 5 June 2023).Google Scholar
Rabbi, B, Chen, ZH and Sethuvenkatraman, S (2019) Protected cropping in warm climates: a review of humidity control and cooling methods. Energies 12(14), 2737.CrossRefGoogle Scholar
Sarafoji, P, Mariappan, V, Anish, R, Karthikeyan, K and Reddy, J (2021) Performance study of solar photovoltaic cold storage system using phase change materials. Materials Today: Proceedings 46, 9623–9629.Google Scholar
Seo, TC, Kim, JH, Kim, SY, Cho, MW, Choi, MK, Ryu, HR, Shin, HH and Lee, CK (2022) Ventilation at supra-optimal temperature leading high relative humidity controls powdery mildew, silverleaf whitefly, mite and inhibits the flowering of Korean Melon in a Greenhouse Cultivation. Journal of Bio-Environment Control 31(1), 43–51.CrossRefGoogle Scholar
Shamshiri, R, Kalantari, F, Ting, KC, Thorp, KR, Hameed, IA, Weltzien, C, Ahmad, D and Shad, ZM (2018) Advances in greenhouse automation and controlled environment agriculture: a transition to plant factories and urban agriculture. International Journal of Agricultural and Biological Engineering 11, 1–22.CrossRefGoogle Scholar
Simsek, E, Zhu, K, Kashanchi, GN, Williams, MJ, Galy, T, Marszewski, M, Tolbert, SH and Pilon, L (2021) Light transfer through semi-transparent glass panes supporting pendant droplets. Journal of Quantitative Spectroscopy and Radiative Transfer 261, 107493.CrossRefGoogle Scholar
Stemmle, R, Blum, P, Schüppler, S, Fleuchaus, P, Limoges, M, Bayer, P and Menberg, K, (2021) Environmental impacts of aquifer thermal energy storage (ATES). Renewable and Sustainable Energy Reviews 151, 111560.CrossRefGoogle Scholar
Su, Y and Xu, L (2021) Greenhouse climate setpoint optimization: an online decision strategy. IEEE Access 9, 140298–140314.CrossRefGoogle Scholar
Su, Y, Xu, L and Goodman, ED (2021) Multi-layer hierarchical optimisation of greenhouse climate setpoints for energy conservation and improvement of crop yield. Biosystems Engineering 205, 212–233.CrossRefGoogle Scholar
Tezcan, N (2020) The effect of fossil fuel and renewable energy on heat requirement of plastic and polycarbonate greenhouses. Preprints 2020, 2020100164.Google Scholar
Tusi, A, Shimazu, T, Ochiai, M and Suzuki, K (2021) Continuous measurement of greenhouse ventilation rate in summer and autumn via heat and water vapor balance methods. Environmental Control in Biology 59(2), 41–48.CrossRefGoogle Scholar
Van Dijk, J, Fernandez, A, Bernasconi, SM, Caves Rugenstein, JK, Passey, SR and White, T (2020) Spatial pattern of super-greenhouse warmth controlled by elevated specific humidity. Nature Geoscience 13(11), 739–744.CrossRefGoogle Scholar
Vanegas-Ayala, SC, Barón-Velandia, J and Leal-Lara, DD (2022) A systematic review of greenhouse humidity prediction and control models using fuzzy inference systems. Advances in Human-Computer Interaction 2022, 1–16.CrossRefGoogle Scholar
Villagran, EA, Romero, EJB and Bojacá, CR (2019) Transient CFD analysis of the natural ventilation of three types of greenhouses used for agricultural production in a tropical mountain climate. Biosystems Engineering 188, 288–304.CrossRefGoogle Scholar
Xiu, Z, Nie, W, Chen, D, Yan, J, Cai, P, Liu, Q and Wei, C (2019) Numerical simulation study on the coupling mechanism of composite-source airflow–dust field in a fully mechanized caving face. Powder Technology 356, 443–457.CrossRefGoogle Scholar
Yadav, AA, Oturkar, N and Deshmane, KS (2021) Design optimization and simulation of a solar grid connected photovoltaic system for a residential house in West Central Maharashtra. Science and Technology 6(02), 79–86.Google Scholar
Zainol Abidin, MA, Mahyuddin, MN and Mohd Zainuri, MAA (2021) Solar photovoltaic architecture and agronomic management in agrivoltaic system: a review. Sustainability 13(14), 7846.CrossRefGoogle Scholar
Zhang, M, Yan, T, Wang, W, Jia, X, Wang, J and Klemeš, JJ (2022) Energy-Saving design and control strategy towards modern sustainable greenhouse: A review. Renewable and Sustainable Energy Reviews 164, 112602.CrossRefGoogle Scholar