Effect of total dissolved solids and pH on the growth and yield of spinach (Spinacia oleracea L.) in the aeroponic system
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https://doi.org/10.15625/2615-9023/21117Keywords:
Aeroponic system, pH, growth, spinach, Total Dissolved SolidsAbstract
A study on the total dissolved solids and pH on the growth and yield of spinach (Spinacia oleracea L.) in an aeroponic system was carried out at the Tien Giang Center of Applied Research and Science Technology Services in 2024. The study aimed to determine the effectiveness level of total dissolved solids and pH on the promotion of plant growth and yield of spinach in an aeroponic system. The two-factor experiment was arranged in a completely randomized design with nine treatments and five repetitions. Total dissolved solids have 3 levels: 1,000 ppm; 1,200 ppm and 1,400 ppm corresponding to A1, A2 and A3. pH has 3 levels: 6.0, 6.5 and 7.0 corresponding to B1, B2 and B3. Nine treatments to incorporate total dissolved solids and pH include: A1B1 (1,000 ppm/6.0), A1B2 (1,000 ppm/6.5), A1B3 (1,000 ppm/7.0), A2B1 (1,200 ppm/6.0), A2B2 (1,200 ppm/6.5), A2B3 (1,200 ppm/7.0), A3B1 (1,400 ppm/6.0), A3B2 (1,400 ppm/6.5) and A3B3 (1,400 ppm/7.0). Results showed that spinach grew well in the aeroponic systems with total dissolved solids at 1,200–1,400 ppm and pH at 6.0–6.5. Our results show that, from 10 days to 20 days after transplanting, there is an interaction between the factors “total dissolved solids” and “pH”, affecting the growth and development of spinach in the aeroponics system, with differences between pairs of treatments. However, statistical analysis did not find the interaction between factors “total dissolved solids” and “pH” affecting the yield of spinach in aeroponic systems. In the treatments, A3B1 (1,400 ppm/6.0) results in terms of number of leaves (27.50 ± 0.14 leaves/plant), Plant height (44.82 ± 1.16 cm), leaf length (28.86 ± 1.62 cm), leaf width (14.40 ± 1.37 cm), root length (87.42 ± 4.33 cm) were higher than in other treatments.
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Bradley F. M., Ellis B. W., Martin D. L. eds., 2009. The Organic gardener’s handbook of natural pest and disease Control. Rodale. ISBN 978-1-60529-677-7.
Butler J. D., Oebker N. F., 2006. Hydroponics as a Hobby - Growing plants without soil. Circular 844. Information Office, College of Agriculture, University of Illinois, Urbana, IL 61801.
Chadirin Y., Matsuoka T., Suhardiyanto H., Susila A. D., 2007. Application of deep sea water (DSW) for nutrient supplement in hydroponics cultivation of tomato: effect of supplemented DSW at different EC levels on fruit properties. Jurnal Agronomi Indonesia (Indonesian Journal of Agronomy), 35(2).
Eldridge B. M., Manzoni L. R., Graham C. A., Rodgers B., Farmer J. R., Dodd A. N., 2020. Getting to the roots of aeroponic indoor farming. New Phytologist, 228(4): 1183–1192.
Gopinath P., Vethamoni P. I., Gomathi M., 2017. Aeroponics soilless cultivation system for vegetable crops. Chemical Science Review and Letters, 6: 838–849.
Nguyen T. N. H., Nguyen T. P., Tran T. T., 2023. Effect of organic fish and inorganic fertilizers on the growth and yield of lettuce “Batavia” in aeroponic system. South Asian Journal of Agricultural Sciences, 3(1): 140–144.
He J., Qin L., Lee S. K., 2013. Root-zone CO2 and root-zone temperature effects on photosynthesis and nitrogen metabolism of aeroponically grown lettuce (Lactuca sativa L.) in the tropics. Photosynthetica, 51(3): 330–340.
Wahocho N. A., Memon N., Kandhro M. N., Miano T. F., Talpur K. H., Wahocho S. A., 2016. Response of nitrogen on the growth and productivity of spinach (Spinacia oleracea L). Sindh University Research Journal-SURJ (Science Series), 48(2).
Kim H. K. H., Cho Y. S. C. Y., Kwon O. K., Cho M. W., Hwang J., Bae S. D. B. S., Jeon W. T. J W., 2005. Effect of pH and EC of hydroponic solution on the growth of greenhouse rose. Asian Journal of Plant Sciences, 4(4): 348–355.
Lakhiar I. A., Gao J., Syed T. N., Chandio F. A., Buttar N. A., 2018. Modern plant cultivation technologies in agriculture under controlled environment: A review on aeroponics. Journal of Plant Interactions, 13(1): 338–352.
Akon M. R., 2019. The influence of nutrient solution pH on growth and yield of strawberry plants grown in aeroponic system. Journal of the Bangladesh Society for Agricultural Science and Technology, 16(1–4): 23–8.
Morelock T. E., Correll J. C., 2008. Spinach. In Vegetables I: Asteraceae, brassicaceae, chenopodicaceae, and cucurbitaceae (pp. 189–218). New York, NY: Springer New York.
Murcia M. A., Jiménez-Monreal A. M., Gonzalez J., Martínez-Tomé M., 2020. Spinach. In Nutritional Composition and Antioxidant Properties of Fruits and Vegetables (pp. 181–195). Academic Press.
Nichols M. A., Woolley D. J., Christie C. B., 2002. Effect of oxygen and carbon dioxide concentration in the root zone on the growth of vegetables. Acta Horticulturae, 578: 119–122.
Oztekin G. B., Uludag T., Tuzel Y., 2018. Growing spinach (Spinacia oleracea L.) in a floating system with different concentrations of nutrient solution. Applied Ecology and Environmental Research, 16(3): 3333–3350.
Raviv M., Lieth J. H., Bar-Tal A., 2008. Significance of soilless culture in agriculture. Soilless Culture, 1-11.
Soffer H., Burger D. W., Lieth H., 1991. Plant growth and development of Crysanthemum and Ficus in aero-hydroponics: response to low dissolved oxygen concentrations. Scientia Horticulturae, 45: 287–294.
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