Abstract
Field experiments were conducted during consecutive spring seasons of 2013–2014 and 2014–2015 at ICAR-Indian Institute of Sugarcane Research, Lucknow, in subtropical India to find the best irrigation application parameters that lead to significant reduction in total water use and to characterize soil moisture spread along the furrow. The soil of the experimental site is categorized as Inceptisol neutral in reaction (pH 7.6), low in organic carbon (0.33%) and available N (187.5 kg/ha), medium in available P (19.7 kg/ha) and K (239.4 kg/ha). The treatment consisted of two length of furrows (F1-50 m and F2-75 m) and six discharge and cut-off length (D1: Furrow-8 L per second – lps + 75% cut-off length, D2: Furrow-10 lps + 75% cut-off length, D3: Furrow-8 lps + 85% cut-off length, D4: Furrow-10 lps + 85% cut-off length, D5: Border-75% cut-off length and D6: Border-85% cut-off length). Experiment was laid out in split plot design with three replications. The number of millable canes (109.27 t/ha), cane length (169.21 cm), average cane weight (0.68 kg), cane yield (50.93 t/ha) and sugar yield (6.75 t/ha) were found significantly higher under longer furrow length (75 m). Significantly highest number of shoot counts (168.61 t/ha at 180 DAP), millable canes (106.61 t/ha), cane yield (54.02 t/ha) and sugar yield (7.03 t/ha) were recorded with discharge of 10 lps + 85% cut-off length. Moisture flow pattern showed a clear downward movement of water in all the furrow irrigation combinations methods with required water availability at tail end region. Significantly voluminous root (53.25 cc/clump), longer root length (33.90 cm), higher number of root hairs (918.9 cm), wider horizontal spread (27.0 cm) and root efficiency (22.84) were observed under discharge of 10 lps at cut-off of 85% discharge of water at 10 lps with 85 m cut-off length recorded highest IWUE (2239.71 kg/ha cm). Under conventional method of irrigation, IWUE was very low. Thus, it may be concluded that to conserve and save irrigation water, a cut-off at 85% furrow length and discharge of 10 lps are efficient to soak the soil at tail end of the field. Further, the length of the furrow may be kept up to 75 m under sandy loam alluvial soils having slope less than 1%.
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References
Corchran, W.G., and G.M. Cox. 1957. Experimental designs. New York: Wiley.
Craft, A.S. 1968. Water deficits and physiological processes. In Water deficits and plant growth, ed. T.T. Kozlowski, 85–133. New York: Academic Press.
De Costa, W.A.J.M. 2001. Plant water relations: principal and applications, 301–441. Sri Lanka: University of Peradeniya.
De Silva, A.L.C., and W.A.J.M. De Costa. 2004. Variation in growth, physiology and yield of sugarcane under two contrasting water regimes. Tropical Agricultural Research 16: 1–12.
Domaingue, R. 1996. Family and varietal adaption of sugarcane to dry conditions and relevance to selection procedures. Proceedings of International Society of Sugar Cane Technologists Congress 21: 418–435.
Gosal, S.S., S.H. Wani, and M.S. Kang. 2009. Biotechnology and drought tolerance. Journal of Crop Improvement 23: 19–54.
Gupta, A.P. 1977. Method for assessment of sugarcane quality. The Indian Sugar Crops Journal 4: 87–88.
Hartt, C.E., and G.O. Burr. 1965. Factors affecting photosynthesis in sugarcane. Proceeding of International Society of Sugarcane Technologists 12: 590–609.
Hunsigi, G. 1993. Production of sugarcane. Theory and practice, vol. 245. Berlin: Springer.
Inman-Bamber, N.G. 1991. A growth model for sugar-cane based on simple carbon balance and the CERES-maize water balance. South African Journal of Plant and Soil 8: 93–99.
Inman-Bamber, N.G. 1995. Climate and water as constraints to production in the South African Sugar Industry. In Proceedings of the South Africa Sugar Technology Association 69: 55–59.
Inman-Bamber, N.G. 2004. Sugarcane water stress criteria for irrigation and drying off. Field Crops Research 89: 107–122.
Kapur, R., B.L. Srivastava, and S.K. Dattamajumder. 2004. Root characteristics of some subtropical sugarcane genotypes from breeder’s perspective. Sugarcane International 22 (5): 27–31.
Kozlowski, T.T. 1964. Water metabolism in plants. New York: Harper.
Keating, B.A., M.J. Robertson, R.C. Muchow, and N.I. Huth. 1999. Modeling sugarcane production systems. I. Description and validation of the APSIM sugarcane module. Field Crops Research 61: 253–271.
Mathew, T., and K. Varughese. 2008. Effect of methods irrigation and trash mulching on biophysico-chemical environs of soil in sugarcane agroecosystem. Sugar Tech 10: 308–313.
Meade, G.P., and J.C.P. Chen. 1977. Cane sugar hand book, edn. 10. New York: Wiley.
Muchow, R.C., M.J. Robertson, and B.A. Keating. 1997. Limits to the Australian sugar industry: climate and biological factors. In: Keating, B.A., Wilson, J.R. (Eds.), Intensive Sugarcane Production: Meeting the Challenges Beyond 2000, 37–55. Wallingford: CAB International.
Mukerji, B.K., and G. Verma. 1950. Manuring of sugarcane—a critical review. Proc. Ann. Conv. STAI 19 (1): 49–69.
NFCSF. 2016. National Federation of Cooperative Sugar Factories Limited. Cooperative Sugar 47 (7): 42–54.
Olsen, S.R., and L.E. Sommers. 1982. Phosphorus. In Methods of soil analysis. Part 2, ed. A.L. page, R.H. Millar, and D.R. Keeney, 404–448. Madison, WI: American Society of Agronomy and Soil Science Society of America.
Page, A. L., R.L. Miller and D.R. Keeney. 1982. Methods of soil analysis.Part 2, 2nd ed., 903–947. Agron. Monogr. 9 ASA and SSSA, Madison, WI.
Passioura, J.B. 1983. Roots and drought resistance. Agricultural Water Management 7: 265–280.
Shrivastava, A.K., Arun K. Srivastava, and S. Soloman. 2011. Sustaining sugarcane productivity under depleting water resources. Current Science 101 (6): 748–754.
Sinha, S.K., and N.P. Singh. 1977. Water plant relationship in water requirement and irrigation management crops in India, 57–90. New Delhi: WTC, IARI.
Stewart, R. L. 1995. Surge irrigation in sugarcane. Proceedings International Society for Sugarcane Technologists 21: 110–112.
Smith, M.A., A. Singles, and R. Van Antwerpen. 2005. Difference in canopy development of two sugarcane cultivars under conditions of water stress. Proceedings South African Sugar Technologist Association 78: 149–152.
Singh, A.K. 2001. Water science and technology manual on measurement of soil hydrophysical properties. New Delhi: Water Technology Centre, IARI.
Singh, A.K., M. Lal and K.P. Singh. 2009. Optimizing soil moisture regimes for vegetable cowpea intercropped with spring planted sugarcane. Vegetable Science 36 (1): 39–42.
Singh, A.K., T.K. Srivastava, Akhilesh K. Singh and S.N. Singh. 2015. Efficient water application techniques in sugarcane for sub-tropical India. In 3rd U.P. Agricultural Science Congress June, 14–16, 2015, Souvenir, 77–78.
Sundara, B. 1998. Sugarcane cultivation, vol. 292. New Delhi: Vikas Publication.
Yadav, R.L., and S.R. Prasad. 1987. Transpiration, stomatal diffusion resistance and changes in leaf morphology due to moisture stress in sugarcane. Indian Journal of Sugarcane Technology 4 (2): 96–103.
Yadav, R.L. 1993. Agronomy of sugarcane. Lucknow, India: International book distributing Co.
Yadav, R.L., and S.R. Prasad. 1988. Soil moisture stress effect on CO2 assimilation, nutrient concentration and juice quality of sugarcane. Indian Journal of Sugarcane Technology 5 (2): 118–131.
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The authers are greatful to Dr. A. D. Pathak, Director, ICAR-IISR, Lucknow, India for providing the facilities to conduct the research work.
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Singh, A.K., Visha Kumari, V., Gupta, R. et al. Efficient Irrigation Water Management in Sugarcane Through Alteration of Field Application Parameters Under Subtropical India. Sugar Tech 20, 21–28 (2018). https://doi.org/10.1007/s12355-017-0514-x
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DOI: https://doi.org/10.1007/s12355-017-0514-x