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Field evaluation of Cavendish banana cultivars propagated either by suckers or by tissue culture, over six crop cycles in the tropics

Published online by Cambridge University Press:  18 July 2007

Esendugue Greg Fonsah
Affiliation:
Dep. Agric. Appl. Econom., Univ. Georgia, Tifton, GA 31793, USA
Charles Agho Adamu
Affiliation:
Del Monte Fresh Produce SARL, BP 13275, Douala, Cameroon, West Africa
Blessed Ndokpe Okole
Affiliation:
LifeLab (ECoBio Innovation Centre), PO Box 30603, Mayville 4058, Durban
Benjamin G. Mullinix
Affiliation:
University of Georgia, Tifton Campus,Tifton, GA 31793-0748, USA
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Abstract

Introduction. Bananas are traditionally propagated by suckers: nevertheless, the advantage of using tissue-cultured plants for banana production has been demonstrated in recent years. Despite the large-scale use of micropropagated plants in the subtropical regions, little information is available on the performance of these crops in tropical countries. So we compared the yield potential of some Cavendish banana cultivars propagated either by traditional suckers or by tissue culture. Materials and methods. A randomized complete block experiment was established in a commercial plantation in Cameroon to compare the performance of three tissue-cultured banana plants of Grand Nain, Williams and Zelig cultivars and two conventionally-propagated plants of Grand Nain and Williams. Morphological, phenological and yield component data were collected for six crop cycles. Results. All the plants grew vigorously and produced quality exportable fruits. However, the tissue-cultured plants consistently produced heavier bunches and higher yields than the conventionally-propagated plants. The highest yields (65.92 t·ha–1 for Grand Nain, 64.60 t·ha–1 for Williams and 65.58 t·ha–1 for Zelig) were obtained for the tissue-cultured plants in the third crop cycle compared with 51.43 t·ha–1 and 59.02 t·ha–1 obtained for the traditionally-propagated Grand Nain and Williams plants, respectively. There were no significant yield differences between the plants of different origin in the second and fourth cycles, respectively. However, the tissue-cultured Williams and Zelig plants outperformed the other plants in the sixth crop cycle. Conclusion. The tissue-cultured plants of the three Cavendish cultivars studied performed better than the plants resulting from conventional suckers. The best cultivar for commercial plantation used, that is located in a tropical environment, was Williams. In general, to obtain an optimum benefit, we would recommend the use of tissue-cultured plants over a period of 6–7 years with good management practices.

Type
Research Article
Copyright
© CIRAD, EDP Sciences, 2007

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References

Fonsah E.G., Chidebelu S.N., Economics of banana production and marketing in the tropics, Minerva Press, London, UK, 1995.
Israeli Y., Lahav E., Reuveni O., In vitro culture of bananas, in: Gowen S. (Ed.), Bananas and plantains, Chapman and Hall, London, UK, 1995.
Robinson J.C., Bananas and plantains, CAB International, Oxon, UK, 1996.
Vuylsteke D., Shoot-tip culture for the propagation, conservation, and exchange of Musa germplasm. Practical manuals for handling crop germplasm in vitro, Int. Board Plant Genet. Resour. (IBPGR), Rome, Italia, 1989, 55 p.
Ma, S.S., Shii, C.T., In vitro formation of adventitious buds in banana shoot apex following decapitation, J. Chin. Soc. Hortic. Sci. 18 (1972) 135142.
Daniells J.W., Comparison of growth and yield of bananas derived from tissue culture and conventional planting material, Banan. Newsl. 11 (2) (1988).
Drew, R.A., Smith, M.K., Field evaluation of tissue-cultured bananas in South Eastern Queensland, Austral. J. Exp. Agric. 30 (1990) 569574. CrossRef
Robinson, J.C., Fraser, C., Eckstein, K., A field comparison of conventional suckers with tissue culture banana planting material over three crop cycles, J. Hortic. Sci. 68 (1993) 831836. CrossRef
Arias, O., Valverde, M., Producción y variación somaclonal de plantas de banano variedad Grande Nain producidas por cultivo de tejidos, Rev. Asoc. Banan. Nac. (Costa Rica) 28 (1987) 611.
Stover R.H., Simmonds N.W., Bananas, Longman Sci. Tech., Trop. Agric. Series, John Wiley & Sons, New Yorkn USA, 1987.
Okole, B.N., Schulz, F.A., Micro-cross sections of banana and plantains (Musa spp.) morphogenesis and regeneration of callus and shoot buds, Plant Sci. 116 (1996) 185195. CrossRef
Israeli Y., Reuveni O., Named N., Genetic variability and performance of in vitro propagated banana plants, in: Cháves J.A., Calderón R.R. (Eds.), Memorias 1986 de la IV Reunión sobre agrofisiología del banano, Asoc. Banan. Nac., San José, Costa Rica, 1988, 97–104.
Vuylsteke, D., Ortiz, R., Field performance of conventional vs. in vitro propagules of plantain (Musa spp., AAB group), HortScience 31 (1996) 862865.
Zamora, A.B., Damasco, O.P., Estano, E.S., Barba, R.C., Pateña, L.F., Growth and yield of micropropagated and sucker-derived banana plants (Musa spp., cvs. Lakatan, Bungulun and Saba), Philipp. Agric. 72 (1989) 458465.
Robinson, J.C., Nel, D.J., Eckstein, K., A field comparison of ten Cavendish sub-group banana cultivars and selections (Musa AAA) over four crop cycles in the subtropics, J. Hortic. Sci. 68 (1993) 511521. CrossRef
Anon., La qualité de la banane, Inst. Rech. Fruits Agrumes (IRFA), Minist. Agric. Serv. Repress. Fraud. Contrôle Qual., Paris, France, 1980.