Evapotranspiration by stages of development in celery (Apium graveolens)
B. Harizanova-Petrovа
Abstract: The aim of the study is to determine the evapotranspiration by stages of development, with which, in an indirect way, quickly and easily predict and manage the irrigation regime of head celery. A field experiment was conducted with celery in the Plovdiv region, grown under irrigated conditions. There are six options, irrigated with different irrigation rates, are set as follows: option 1) 130%, option 2) 100%, option 3) 70%, option 4) 50% and option 5) 30% of the calculated rate, option 6) without irrigation. In the hypothetical optimal variant, a pre-irrigation humidity of 80% of the FC (field capacity) was maintained in the 0-40 cm layer. The development period is divided into three sub-periods: 1 - from the interception of seedlings to the beginning of root formation; 2 - beginning of growth of the root crop and 3 stage - Intensive growth until harvesting. ETc was established by phases of development for celery, and in the layer 0-0.4m a maximum (3.8 and 4.42) was recorded in phase 2 - the beginning of the formation of the root crop, respectively for the variants irrigated with 100% and 130 % of the norm. With the same options, but at a depth of 0-0.5m ETc is 4.81 and 5mm. In the first phase of development, celery spends about 155 mm in variants 1 and 2, between 110 and 95 in variants 3 and 4 and between 78 and 60 mm in variants 5 and 6.
Keywords: celery, drip irrigation; phases of development; еvapotranspiration
Citation: Petrova-Harizanova, B. (2024). Evapotranspiration by stages of development in celery (Apium graveolens). Bulgarian Journal of Crop Science, 61(5) 64-72 (Bg).
References: (click to open/close) | Arévalo, J. J., Vélez S, J. E., & Intrigliolo, D. S. (2014). Determination of an efficient irrigation schedule for the cultivation of rose cv. Freedom under greenhouse con¬ditions in Colombia. Agronomía Colombiana, 32(1), 95-102. Bazitov, R. & Kikindonov, Tz. (2016). Evapotranspira¬tion of Sudan grass grown as secondary crops on irrigation. Rastenievadni nauki (Bulgarian Journal of Crop Science), 53(5-6), pp. 85–89 (Bg). Bazitov, R., Gospodinov, I., & Stoianova, A. (2014). Evapotranspiration of winter barley sprinkler irriga¬tion International scientific on-line journal „Science & Technologies“ DOI: 10.13140/2.1.4459.7125 (Bg) Bazitov, R. (2018).Evapotranspiration and biophysical coefficients of the water Treatment mask at waste pol¬ishing mode. Science & Technologies. Volume VIII, 2018, Number 6: Agrobiological Science Cahn, M. D., Johnson, L. F., & Benzen, S. D. (2022). Evapotranspiration Based Irrigation Trials Examine Water Requirement, Nitrogen Use, and Yield of Romaine Lettuce in the Salinas Valley. Horticul¬turae, 8(10), 857. Crafty, G., Kochev, K. Davidov, D., Zhechev, P., Varlev, I., Atanasov, P., & Kostov, M. (1962). Watering Hand-book; Sofia (Bg). Crafty, G. (1964). Determination of total water consump¬tion by the balance method and its relation to evapora¬tion. Plant Sciences, 3, 147 – 158 (Bg). Crafty, G., & Georgiev, G. (1969). Guide to Land Recla¬mation Exercises. Zemizdat, Sofia. (Bg). Delibaltov, Io., Chehlarov, A., Nikomov, B., Zahariev, T., Ivanov, P. & Petrov, P. (1977). Handbook of Irriga-tion; Zemizdat – Sofia (Bg). Dulov Sl., Ovcharova, A., Meranzova, R., Arnaudova, Zh., & Uzunov. N. (2003). Agricultural hydromeliora¬tions. Ed. Agrarian University-Plovdiv, 51-52(Bg). Farg, E., Arafat, S. M., Abd El-Wahed, M. S., & El- Gindy, A. M. (2012). Estimation of evapotranspiration ETc and crop coefficient Kc of wheat, in south Nile Delta of Egypt using integrated FAO-56 approach and remote sensing data. The Egyptian Journal of Remote Sensing and Space Science, 15(1), 83-89. Georgiev, G. V., Darzhanov, K., Dulov, Sl., Uzunov, N. & Ovcharova, A. (1991). Manual for reclamation exercises. Ed. „Land“, Sofia. (Bg). Howell, T. A., Cuenca, R. H., & Solomon, K. H. (1990). Crop yield response. In: Hoffman et al. (Eds.), Management of Farm Irrigation Systems. ASAE, pp. 311–312. Johnson, Lee F. ( 2019) , E vapotranspiration-based I r¬rigation Scheduling in Salinas Valley Vegetable Crops, Accepted Abstract for American Geophysical Union (AGU) Fall Meeting, 9-13 Dec., 2019. https://ntrs.nasa. gov/citations/20190033977 Kireva, R. (2018). E vapotranspiration a nd b iophysical coefficients of strawberry grown under surface drip irrigation, Bulgarian Journal of Soil Science, Aro¬chemistry and Ecology, 52(1), 22-28 (Bg) SSN-online 2367-9212, ISSN-print 2534-8787 Matev, A., Petrova, R., & Harizanova-Petrova, B. (2017). Evapotranspiration of green beans depending on way of irrigation. Journal of Mountain Agriculture on the Balkans, 2017, 20 (5), 296-306. Meranzova, R., & Babrikov, T. (2002). Evapotranspira¬tion of long-day onion, irrigated by microsprinklers, Journal of Central European Agriculture, Vol. 3 No. 3. ISSN 1332-9049 Okechukwu, M. E., Mbajiorgu, C. C., & Kamai, M. B. (2015). Development Of Crop Coefficient Curve For Water Management of African Spinach (Amaranthus Cruentus) Using Lysimeter Studies. In Nigeria Asso¬ciation of Hydrological Sciences Annual Conference, Ahmadu Bello University, Zaria (Vol. 6). Sharma, S. P., Leskovar, D. I., Crosby, K. M., Volder, A., & Ibrahim, A. M. H. (2014). Root growth, yield, and fruit quality responses of reticulatus and inodorus melons (Cucumis melo L.) to deficit subsurface drip irrigation. Agricultural water management, 136, 75-85. Stoyanov, Z., Georgiev, G., Rafailov, R., Darzhanov, K., & Dulov, Sl. (1981). Guide to Agricultural Recla¬mation Exercises. Zemizdat, Sofia. (Bg).
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| Date published: 2024-10-28
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