Effect of plant spacing and fertility level on leaf area variation at different phenological stages of cape gooseberry (Physalisperuviana L.) grown in sodic soil
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Abstract
Vegetative and reproductive growth in cape gooseberry (Physalisperuviana L.) proceed concomitantly during the greater part of the life cycle thereby foliar traits (e.g. leaf area) become important in photosynthetic action of the plant. In present study, the leaf area variation in cape gooseberry was studied at five phenological stages i.e. pre-flowering (30 DAT), start of flowering (60 DAT), early fruiting (120 DAT), peak fruiting (180 DAT) and late fruiting (240 DAT), grown at three spacings (60 × 75, 75 × 75 and 75 × 90 cm) and four NPK levels (control, 60:40:40, 80:60:60 and 100:80:80 kg ha-1). Leaf area increased from per-flowering (73.51 cm2) to start of flowering (82.26 cm2) and thereafter, it was decreased gradually at later stages i.e. early fruiting (79.17 cm2), peak fruiting (73.15 cm2) and late fruiting (60.21 cm2). Spacing had no significant effect on leaf area at pre-flowering and start of the flowering, but at later stages, widest spacing (75 × 90 cm) exhibited significantly maximum leaf area at early fruiting (82.44 cm2), peak fruiting (78.22 cm2) and late and fruiting (65.31 cm2). Leaf area increased due to increased NPK levels with maximum values under 100:80:80 kg NPK ha-1 at all the phenological stages: pre-flowering (78.99 cm2), start of flowering (90.97 cm2), early fruiting (88.47 cm2), peak fruiting (80.74 cm2) and late fruiting (67.22 cm2). Spacing × NPK Interactions was significant only at peak fruiting and late fruiting stages with maximum leaf area (75.22 and 71.02 cm2, respectively) at 75 × 90 cm + NPK @ 100:80:80 kg ha-1. These findings can be further helpful in leaf sclerophylly studies in cape gooseberry.
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Cape gooseberry, Leaf area, NPK, Phenological stage, Physalisperuviana L., Spacing
Andrade, F.H., Calvino, P., Cirilo A. and Barbieri, P. (2002). Yield responses to narrow rows depend on increased radiation interception. Agron J., 94: 975-980
Baldissera, C.T., Frak, E., Carvalho, P.C.F. and Louarn, G. (2004). Plant development controls leaf area expansion in alfalfa plants competing for light. HortSci., 39(1): 49-54
Balemi, T. (2009). Effect of phosphorus nutrition on growth of potato genotypes with contrasting phosphorus efficiency. African Crop Sci. J., 17(4). 199-212
Basirat, M., Malboobi, M.A., Mousavi, A., Asgharzadeh, A. and S. Samavat, (2011). Effects of phosphorous supply on growth, phosphate distribution and expression of transporter genes in tomato plants. Austral. J. Crop Sci., 5(5):537-543
Beaton, G.W. (1987). Effect of fertilizer, paclobutraol and chloremquat on strawberry. J. Amer. Soci. Hort. Sci., 112(2): 241-246
Boote, K.J., Jones, J.W., and Hoogenboom, G. (1998). Simulation of crop growth CROPGRO model. In: Peart R.M. and Curry R. (Eds.) Agricultural Systems Modeling and Simulation, Marcel Dekker Inc., New York, USA.
Camacaro, D., Camacaro, M.E.P., Hadley, G.J. P., Dennett, M.D. Battey, N.H. and Carew, J.G. (2004). Effect of plant density and initial crown size on growth, development and yield in strawberry cultivars Elsanta and Bolero. J. Hort. Sci. Biotech., 79(5): 739-746.
Centritto M., Loreto F., Massacci A., Pietrini F., Villani M.C. and Zacchine M. (2000). Improved growth and water use efficiency of cherry saplings under reduced light intensity, Ecol. Res., 15(4) 385-392.
Dalal, R.P.S., Beniwal, B.S. and Sehrawat, S.K. (2013). Seasonal variation in growth, leaf physiology and fruit development in kinnow, a mandarin hybrid. J. Plant Studies, 2(1): 72-77.
Dorais, M.A., Papadopoulos, and Gosselim, A. (2001). Greenhouse tomato fruit quality, Hort. Rev., 26: 239-319.
Dwivedi, Y.C., Kushwah S. and Sengupta S.K. (2002). Studies on nitrogen, phosphorus and potash requirement of dolichos bean. JNKVV Res. J., 36(1-2):47-50.
Goudriaan, J. and Laar, H.H.V. (1994). Modeling Potential Crop Growth processes. Kluwer Academic Publishers, Dordrecht, The Netherlands.
Guo, D.P. and Sun, Y.Z. (2001). Estimation of leaf area of stem lettuce (Lactuca sativa var. angustana ) from linear measurements. Indian J. Agric. Sci., 71(7): 483-486.
Hussey, G. (1963a). Growth and development in young tomato. I. The effect of temperature and light intensity on growth of the shoot apex and leaf primordia. J. Exptl. Biol., 14: 316-325.
Hussey, G. (1963b). Growth and development in growing tomato. II. The effect of defoliation on the development of the shoot apex. J. Exptl. Biol., 14: 326-331
Heuvelink, E. and Marcelis, L.F.M. (1989). Dry matter distribution in tomato and cucumber. Acta Hortic., 260, 149-157
Kinet, JM. (1977). Effect of defoliation and growth substances on the development of inflorescence on tomato. Scientia Hort., 6: 27-35
Lopez, M.V. and Sattii, S.M.E. (1996). Calcium and potassium enhanced growth and yield of tomato under stress. Plant Sci., 114: 19-27
Maddonni, G.A., Otegui, M.E. and Cirilo, A.G. (2001). Plant population density, row spacing and hybrid effects on maize canopy architecture and light attenuation. Field Crop Res., 71: 183-193
Miller, R.J., Langdale, G.W. and Myhre, D.L. (1967). Leaf area indices and nitrogen uptake of flue-cured tobacco as affected by plant density and nitrogen rate. Agron. J., 59(5): 409-412
Monteith, J.L. and Unsworth, M.H. (1990). Principles of Environmental Physics. Edward Arnold, London.
Morton, F.J. (1987). Cape Gooseberry, In: Morton, F.J. (ed.) Fruits of warm climates. University of Miami, Miami, USA, pp. 430-434
Nelson, W.L. (1978). Phosphorus and moisture. In: Phosphorus for Agriculture. Phosphate and Potash Institute, Atlanta, GA.
Panse, V.G. and Sukhatme, P.V. (1986). Statistical Methods for Agricultural Workers, Forth Edn. ICAR Publications, New Delhi, India.
Pionke, H.B., Sharma, M.L. and Hirschberg, K.J. (1990). Impact of irrigated horticulture on nitrate concentration in ground water. Agric. Ecosys. Environ., 32: 199-122
Possingham, J.V. (1980). Plastid replication and development in life cycle of higher plants. Ann. Rev. Plant Physiol., 31: 113-129
Ramadan M.F. and Morsel, J.T. (2003). Oil goldenberry (Physalis peruviana L.). J. Agric. Food Chem., 51: 969-974
Regina, R.M. and Robert, J.D (1991). Nitrogen, phosphorus, and potassium fertility regimes affect tomato transplant growth. HortSci., 26(2):141-142
Reta-Sanchez, D.G. and Fowler, J.L. (2002). Canopy light environment and yield of narrow-row cotton as affected by canopy architecture. Agron. J., 94: 1317-1323
Ribeiro, R.V. and Machado, E.C. (2007). Some aspects of citrus ecophysiology in subtropical climates: re-visiting photosynthesis under natural conditions, Brazilian. J. Plant Physiol., 19: 393-411
Serdar, U. and Demirsoy, H. (2006). Non-destructive leaf area estimation in chestnut, Scientia Hort., 108: 227-230
Shabani, E., Tabatabaei, S.J., Bolandnazar, S. and Ghasemi, K. (2012). Vegetative growth and nutrient uptake of salinity stressed cherry tomato in different calcium and potassium level. Intl. Res. J. Applied Basic Sci., 3(9):1845-1853
Shafeek, M.R., El-Zeiny, A.H. and Ahmed, M.E. (2005). Effect of phosphate and potassium fertilizer on growth, yield and seed composition of pea plants in new reclaimed soils. Asian J. Plant Sci., 4: 608-612
Sharratt, B.S and McWilliams, D.A. (2005). Microclimatic and rooting characteristics of narrow-row versus conventional-row corn. Agron. J., 97: 1129-1135
Sivasankar, A., Bansal, K.C. and Abrol, Y.P. (1993). Nitrogen in relation to leaf area development and photosynthesis. Proc. Indian Natl. Sci. Acad., 59(4-5): 235-244.
Sonkar, P., Ram, R.B. and Meena, M.L. (2012). Effect of various mulch materials and spacing on growth, yield and quality of strawberry. HortFlora Res. Spectrum, 1(4): 323-327
Um, Y.C. Park, D.K., Lee, J.K., Cheong, J.W. and Kang, K.W. (1997). Effect of planting density and side shoot allowing on growth and seasonal yield in green house grown tomato. RDA J. Hort. Sci., 39(2): 21-26
Varia, C.S. Hochmuth, G.J., Cornell, J.A. and Olson, S.M. (1998). Nitrogen fertilization of Florida-grown tomato transplants: Seasonal variation in greenhouse and field performance. HortScience, 33(2): 251-254
Williams, L. and Martinson, T.E. (2003). Nondestructive leaf area estimation of ‘Niagara’ and ‘DeChaunac’ grapevines. Scientia Hort., 98: 493-498
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