THE INTERACTION OF ROOTSTOCKS, WATER AND SOIL HUMECTANTS AND YOUNG APPLE TREE GROWTH
Maqola haqida umumiy ma'lumotlar
Young apple trees that are planted in areas with limited water resources face challenges in their early growth stages. Insufficient intake of moisture often stunts the growth of the young tree and impacts its subsequent growth. In this study, we observed the interaction of semi-vigorous Marubakaido (Ma) (Malus prunifolia „Ringo‟) and dwarfing Jm7 („Marubakaido‟ × M.9) rootstocks, water treatments (50% and 70% soil water content) and soil treatments (water retention substances) on young „Miyabi Fuji‟ apple trees and how this interaction impacts their growth under dry climactic conditions. The development of shoots, stems and roots was analyzed. The results showed that the interaction of rootstock and water and soil treatments had a significant impact on total shoot length (p < 0.01), as did the interaction of rootstock and soil treatment on the length of the top three shoots (p< 0.05) and trunk fresh weight (p < 0.05). In addition, it was found that the interaction of water and soil treatments impacted shoot fresh weight (p < 0.05). This study revealed that the growth of young apple trees in areas with limited water resources can be aided by providing a 70% and 50% saturation of water and soil retention treatments for young trees that have been grafted onto semi-vigorous Ma and dwarfing Jm7 rootstocks. Growers in these areas should think about which rootstock to use, what soil water retention treatments that can be introduced into the soil as well the amount of water that should be applied.
1. Tromp J. Sylleptic shoot formation in young apple trees exposed to various soil temperature and air humidity regimes in three successive periods of the growing season. Ann Bot. 1996;77(1):63–70.
2. Greene DW, Autio WR. Notching techniques increase branching of young apple trees. J Am Soc Hortic Sci. 1994;119(4):678–82.
3. Arakawa O, Xu J, Asada T. Effect of Planting Season and Root Removal on Shoot Growth on One-year-old Apple Trees. Hortic Res. 2014;13(3):261–5.
4. Ro HM. Water use of young “Fuji” apple trees at three soil moisture regimes in drainage lysimeters. Agric Water Manag. 2001;50(3):185–96.
5. Zhou H, Niu X, Yan H, Zhao N, Zhang F, Wu L, et al. Interactive effects of water and fertilizer on yield, soil water and nitrate dynamics of young apple tree in semiarid region of northwest China. Agronomy. 2019;9(7).
6. Debuse C. a Comparison Study of Micro-Propagated Clonal Walnut Rootstock Growth Following Applications of Microbial and Humectant Soil Amendments. 2011;97–101.
7. Greenwell DP, Sibley JL, Newby AF, Robinson CW, Eakes DJ. Effects of Tween® 20 on growth and drought tolerance of coleus “Wasabi” (Plectranthus scutellarioides)©. Acta Hortic. 2017;1174:365–9.
8. Soejima J, Bessho H, Tsuchiya S, Komori S, Abe K, Kotoda N. Breeding of Fuji apples and performance on JM rootstocks. Compact Fruit Tree. 1998;31(1):22–4.
9. Soejima J, Yoshida Y, Haniuda T, Bessho H, Tsuchiya S, Masuda T, et al. New dwarfing apple rootstocks “JM 1”, “JM 7” and “JM 8”. Bull Natl Inst Fruit Tree Sci. 2010;(No.11):1–16.
10. Hughes SW. Archimedes revisited: a faster, better, cheaper method of accurately measuring the volume of small objects. Phys Educ [Internet]. 2005;40(5):468–74. Available from: http://dx.doi.org/10.1088/0031-9120/40/5/008
11. Hull J. Training and Pruning Apple and Pear Trees. Horttechnology. 2018;3(4):464a – 464.
12. Kikuchi Takuro, Yunosuke Shiozaki, Toshiyuki Adachi, Setsuo Annaka Fernando, Yasutomo Otake TN. Growth responses from one-year-old apple branches to heading as a factor governing terminal shoot length in cultivars with different branching habits. Chem Pharm Bull [Internet]. 2003;72 no. 6:473–81. Available from: http://www.mendeley.com/research/geology-volcanic-history-eruptive-style-yakedake-volcano-group-central-japan/
13. Campbell AI, Bould C. Virus, Fertilizer and Rootstock Effects on the Growth and Precocity of Young Apple Trees. J Hortic Sci. 1970;45(1):75–85.
14. Tworkoski T, Fazio G. Hormone and growth interactions of scions and size-controlling rootstocks of young apple trees. Plant Growth Regul. 2016;78(1):105–19.
15. Botirov A., Arakawa O. (2021). Root Growth Changes in the Winter Planting of Young ‘Miyabi Fuji’ Apple Trees. International Journal of HorticulturalScience and Technology, 8(3), 227–233.https://doi.org/10.22059/ijhst.2021.315746.428.
16. Alisher Botirov, Baxodir Ochilov, & Furqat Hasanov (2022). ILMIY-TAJRIBA STANSIYASINING SO‘NGI YILLARDAGI STATISTIK KUZATUVLARI. Central Asian Academic Journal of Scientific Research, 2 (2), 202-207.
17. Alisher, B. (2021). Promoting Young Apple Tree Growth after Planting in Water Limited Areas (Doctoral dissertation, 岩手大学).
18. Bobomirzayev, P., & Tursunov, S. (2022). DATES AND NORMS OF SOWING NEW VARIETIES OF WINTER WHEAT ON IRRIGATED LANDS OF THE ZARAFSHAN VALLEY. 湖南大学学报 (自然科学版), 49(01).
19. Botirov, A., An, S., Arakawa, O. and Zhang, S. (2022). Application of a Visible/Near-infrared Spectrometer in Identifying Flower and Non-flower Buds on ‘Fuji’ Apple Trees. Indian Journal of Agricultural Research. 56(2): 214-219.
Botirov, A. ., & Arakawa, O. . (2022). THE INTERACTION OF ROOTSTOCKS, WATER AND SOIL HUMECTANTS AND YOUNG APPLE TREE GROWTH. Academic Research in Educational Sciences, 3(1), 43–56. https://doi.org/10.24412/2181-1385-2022-01-43-56
Botirov, Alisher, and Osamu Arakawa,. “THE INTERACTION OF ROOTSTOCKS, WATER AND SOIL HUMECTANTS AND YOUNG APPLE TREE GROWTH.” Academic Research in Educational Sciences, vol. 1, no. 3, 2022, pp. 43–56, https://doi.org/10.24412/2181-1385-2022-01-43-56.
Botirov, . and Arakawa, . 2022. THE INTERACTION OF ROOTSTOCKS, WATER AND SOIL HUMECTANTS AND YOUNG APPLE TREE GROWTH. Academic Research in Educational Sciences. 1(3), pp.43–56.