Growth rate of sugarcanes under early season drought in Northeastern Thailand late rainy season growing system
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Abstract
In the Northeastern Thailand, sugarcane is largely grown in late rainy season. The sugarcane seedlings in this region are possible to encounter a drought stress at early growth stage, and this severely reduce sugarcane yield. The understanding in crop growth rate (CGR) of sugarcane in each developmental stage would be solved this obstacle. Therefore, the objective of this research was to determine CGR under different water regimes for sugarcane planted in late rainy season. Field experiment was conducted at Field Crops Research Station, Faculty of Agriculture, Khon Kaen University. A split plot in a randomized complete block design with 3 replications was used. Main-plots were assigned as irrigated and controlled soil moisture content at 3 levels (Field capacity (FC), ½ available water (AW) and no-water application (rain-fed), and sub-plots were defined as 6 sugarcane cultivars (KK3, UT13, Kps01-12, KKU99-02, KKU99-03, and UT12) with different drought resistance and rooting characteristics. Biomass and CGR were measured at 4 (drought period), 6, 8, 10 (recovery) and 12 months after planting (MAP), and cane yield was collected at 12 MAP. Biomass yield and CGR of six sugarcane cultivars were significant differences. KK3 and UT13 which revealed good performance on cane yield and biomass in drought condition (rain-fed treatment) gave higher CGR values than the 4 remaining cultivars in both drought and recovery periods, and the higher CGR trend were found at recovery stage in ½ AW treatment. Moreover, there was positive relationship between cane yield at harvest and CGR at 4 MAP in rain-fed treatment. For all three water regime treatments, the positive correlation coefficient was existed between cane yield and average CGR in recovery. Thus, the appropriate sugarcane cultivars for late rainy season planting in Northeastern should provide a high CGR for both water deficit and recovery phases.
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References
กอบเกียรติ ไพศาลเจริญ ทักษิณา ศันสยะวิชัย ศุภกาญจน์ ล้วนมณี ศรีสุดา ทิพยรักษ์ เกษม ชูสอน จินดา รัตน์ชื่นรุ่ง และชยันต์ ภักดีไทย. 2555. ความต้องการน้ำและค่าสัมประสิทธิ์การใช้น้ำของอ้อยพันธุ์ขอนแก่น 3. แก่นเกษตร. 40 (ฉบับพิเศษ 3): 103-114.
จิดาภา คงหินไธสง พัชริน ส่งศรี และนันทวุฒิ จงรั้งกลาง. 2560. รูปแบบการเจริญเติบโตและสรีรวิทยาของอ้อยต่อการจำลองความแห้งแล้งในระบบการปลูกอ้อยข้ามแล้ง. มหาวิทยาลัยนเรศวร: วิทยาศาสตร์และเทคโนโลยี. 25(2): 102-112.
สำนักงานคณะกรรมการอ้อยและน้ำตาลทราย. 2562. พื้นที่การปลูกอ้อย ปีการผลิต 2561/2562. แหล่งข้อมูล: http: //www.ocsb.go.th/th/home/index.php. ค้นเมื่อ 26 มกราคม 2564.
Abu-Ellail, F. F., A. F. I. Gadallah, and I. S. H. El-Gamal. 2020. Genetic variance and performance of five sugarcane varieties for physiological, yield and quality traits influenced by various harvest age. Journal of Plant Production. 11(5): 519-528.
Chumphu, S., N. Jongrungklang, and P. Songsri. 2019. Association of Physiological Responses and Root Distribution Patterns of Ratooning Ability and Yield of the Second Ratoon Cane in Sugarcane Elite. Agronomy. 9(4): 200.
Da Silva, J. A. 2017. The importance of the wild cane Saccharum spontaneum for bioenergy genetic breeding. Sugar Tech. 19(3): 229-240.
FAO.2016. Chapter 6 - ETcrop - Single crop coefficient (Kc). Available: http://www.fao.org/docrep/x0490e/x0490e0b.htm. Accessed January 21, 2021.
Jangpromma, N., P. Songsri, S. Thammasirirak, and P. Jaisil. 2010. Rapid assessment of chlorophyll content in sugarcane using a SPAD chlorophyll meter across different water stress conditions. Asian Journal of Plant Sciences. 9: 368-374.
Khonghintaisong, J., P. Songsri, and N. Jongrungklang. 2020. Root characteristics of individual tillers and the relationships with above-ground growth and dry matter accumulation in sugarcane. Pakistan Journal of Botany. 52(1): 101-109.
Khonghintaisong, J., P. Songsri, B. Toomsan, and N. Jongrungklang. 2018. Rooting and physiological trait responses to early drought stress of sugarcane cultivars. Sugar Tech. 20(4): 396-406.
Milligan, S.B., K.A. Gravois and F.A. Martin. 1990. Crop effects on broad-sense heritabilities and genetic variances of sugarcane yield components. Crop Science. 30: 344-349.
Nadeem, M., A. Tanveer, H. Sandhu, S. Javed, M.E. Safdar, M. Ibrahim, and U. Arshad. 2020. Agronomic and economic evaluation of autumn planted sugarcane under different planting patterns with lentil intercropping. Agronomy. 10(5): 644.
Olivier, F., and A. Singels. 2003. Water use efficiency of irrigated sugarcane as affected by row spacing and variety. Sugar Technology. 7: 347-351.
Otto, R., P. C. O. Trivelin, H. C. J. Franco, C. E. Faroni, and A. C. Vitti. 2009. Root system distribution of sugar cane as related to nitrogen fertilization, evaluated by two methods: monolith and probes. Revista Brasileira de Ciência do Solo. 33(3): 601-611.
Ramesh, P. 2000. Effect of different levels of drought during the formative phase on growth parameters and its relationship with dry matter accumulation in sugarcane. Journal of Agronomy and Crop Science. 185(2): 83-89.
Rao, P. G., and S. Singh. 1989. Relationship of growth characteristics with yield and quality in sugarcane (Saccharum officinarum L.). Indian Journal of Plant Physiology. 3: 206-211.
Robertson, M. J., N. G. Inman-Bamber, R. C. Muchow, and A. W. Wood. 1999. Physiology and productivity of sugarcane with early and mid-season water deficit. Field Crops Research. 64(3): 211-227.
Set-Tow, S., P. Songsri, and N. Jongrungklang. 2020. Variations in root distribution patterns and cane yield of 16 elite sugarcane clones grown under varied soil conditions. Sugar Tech. 22(6): 1018-1031.
Silva, P.P., L. Soares, J.G. Costa, L.S. Viana, J.C.F. Andrade, E.R. Goncalves, J.M. Santos, G.V.S. Barbosa, V.X. Nascimento, A.R. Todaro, A. Riffel, M.F. Grossi-de-Sa, M.H.P. Barbosa, A.E.G. Sant’Ana, and C.E.R. Neto. 2012. Path analysis for selection of drought tolerant sugarcane genotypes through physiological components. Industrial Crops and Products. 37: 11-19.
Songsri, P., S. Jogloy, C.C. Holbrook, T. Kesmala, N. Vorasoot, C. Akkasaeng, and A. Patanothai. 2009. Association of root, specific leaf area and SPAD chlorophyll meter reading to water use efficiency of peanut under different available soil water. Agricultural Water Management. 96(5): 790-798.
Sulistiono, W., Taryono, P. Yudono, and Irham. 2017. Growth analysis of transplanted sugarcane bud chips seedling in the dry land. International Journal of Scientific & Technology Research. 6(1): 87-93.
Turner, N. and M. Jones. 1980. Turgor maintenance by osmotic adjustment: A review and evaluation. P. 87–103. In: N.C. Turner and P.J. Kramer. Adaptation of Plants to Water and High Temperature Stress. John Wiley and Sons, NY. USA.
Uddin, S. M. M., S. Murayama, Y. Ishimine, E. Tsuzuki, and J. Harada. 1995. Studies on sugarcane cultivation: 2. Effects of the mixture of charcoal with pyroligneous acid on dry matter production and root growth of summer planted sugarcane (Saccharum officinarum L.). Japanese Journal of Crop Science. 64(4): 747-753.
Zhao, D., B. Glaz, and J.C. Comstock. 2010. Sugarcane response to water-deficit stress during early growth on organic and sand soils. American Journal of Agricultural and Biological Sciences. 5(3): 403-414.