Exploring Constraints and Opportunities for Sorghum Production in Dry Regions of Zimbabwe

Chamunorwa Silas

Zimbabwe Open University, Department of Agriculture, Masvingo Region Centre, P. O. Box 1210, Masvingo, Zimbabwe

Sakadzo Nyasha

Department of Agricultural Economics and Development, Manicaland State University, P. Bag 7001, Mutare, Zimbabwe

Kugedera Andrew Tapiwa

Zimbabwe Open University, Department of Agriculture, Masvingo Region Centre, P. O. Box 1210, Masvingo, Zimbabwe

DOI: https://doi.org/10.36956/njas.v3i2.327

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Abstract

The objective of the study was to explore the constraints and opportunities for small-holder sorghum farmers in dry regions.Two hundred and fifty farmers were sampled by using the simple random and snowball sampling to provide the information that answered the research questions. Questionnaire and interviews were used as the research instruments. Out of 250 participants, 80% were males and 20% were females showing that more males were selected for the research. Data was coded and processed using excel. Descriptive statistics were used to describe results. Of all the participants, 4% were in the age range of 25-30 years, 10% in the age range of 31-35 years, 14% in the age range of 36-40 years, 16% in the age range of 41-45 years and 56% in the age range of 46 years and above. Out of all the participants, 20% attained primary education while 68% had attained secondary education. Only 12% had tertiary education. Results indicated availability of resources (60%) such as certified seed, fertilizers, herbicides and draught power as the major constraint in the production of sorghum. Lack  of technical knowhow (20%) of sorghum production, poor farming methods (9.6%) such as mono-cropping, Striga weed (12%), outbreak of fall armyworm (14.4%) and marketing of produce (8%) were also amongst the major constraints indicated by most participants. 66% of the 250 participants showed  that they produce sorghum due to its drought tolerant nature. Beer brewing was just slightly above half (52%) whilst making mealie meal was slightly below half (48%). Lack of knowledge, resources and poor markets hindered sorghum production in dry regions. Farmers were using retained seeds which are populated and affected by diseases and this contributed to low yields. Opportunities such as reducing poverty, food insecurity and income generation drives some farmers to venture into sorghum production.

Keywords: Exploring, Constraints, Opportunities, Small holder, Subsidy, Zimbabwe


References

[1] AGRITEX Tsholotsho. (2017). Report on crop and livestock production in Tsholotsho.Thsolotsho: Bulawayo File Reports.

[2] AL-Bedairy, N. R., Alsaadawi, I.S., and Shati, R.K. (2011). Effect of combination of sorghum bicolor L. (Moench) cultivars with planting densities on companion weeds. Arch. Agron. Soil Sci. In press.

[3] Alumira, J., & Rusike, J. (2005). The green revolution in Zimbabwe. Journal of Agricultural and Development Economics, 2(1), 50-66.

[4] Amnesty International. (2004, October 15). Zimbabwe, violations of the right to food. Harare: Press Release.

[5] Aruna, C. (2014). High yielding sorghum cultivars for Kharif. In;chapke RR, Vinayagam SS, Patil jv (eds) Improved sorghum cultivation and value addition perspectives. Directorate of Sorghum Research, Hyderabad, pp 89-93.ISBN 81-89335-50-2.

[6] Awada, F. (2016). Assessment of sorghum response to nitrogen availability. PhD Thesis. Universite Paris-saclay.

[7] Brazier, A. (2015). Climate change in Zimbabwe, facts for planners and decision makers. Harare: Konrad Adenauer Stiftung.

[8] Casley, D. J., and Kumar, K (1982). The collection, analysis, and use of monitoring and evaluation data. John Hopkins university press.

[9] Chazovachii, B., Chigwenya, A., & Mushuku, A. (2012). Adoption of climate change resilient rural livelihoods through growing of small grains in Munyaradzi communal area, Gutu District. In African Journal of Agricultural Research, 7(8), 1335-1345. DOI: 10.5897/ AJAR10.921.

[10] Craine, J. M., Elmore, A. J., Wang, L., Aranibar, J., Bauters, M., Boeckx, P. & Fang, Y. (2018). Isotopic evidence for oligotrophication of terrestrial ecosystems. Nature Ecology and Evolution, 2(11), 1735.

[11] Dhliwayo, M. (2007). Human rights and climate change. Retrieved from http://www.ciel.org| publications|Climate| Case study Zimabwe Dec07.pdf. DOI: 10.1094|PDIS-91-4-0467 B.

[12] Dicko, H., Gruppen, H.,Traore, A,Voragen, J.& Berker, J. (2005). Sorghum grain as human food in Africa. Relevance of content of starch and amylase activities. African Journal of Biotechnology, 5 (5): 384-395.

[13] Dube, T., and Phiri, K. (2013). Rural livelihoods in South Western Zimbabwe. American International Journal of Contemporary Research, 3(5), 11-25.

[14] Dube, T., Mlilo,C., Moyo,P., Ncube,C., and Phiri K.(2018). Will adaptation carry the future? Questioning the long-term capacity of small holder farmers’ adaptation strategies against climate change in Gwanda district, Zimbabwe.Journal of Human Ecology,61(1-3),20-30.

[15] FAO. (1996).The World Sorghum and Millet Economies: Volume 1: Grains. National Academy Press. Washington DC. USA.

[16] FAO. (2018). Food and Agricultural Organisation of the United Nations Faostatistics data base.11/02/2019 http;//www.fao.org/faostat/en/#data/QCProduction of selected cereal crops. Accessed on 4/3/2019.

[17] Food and Agriculture Organization (FAO) & International Crops Research Institute for the Semi-Arid Tropics (ICRISAT). (2008). Special report on crop and food supply assessment mission to Zimbabwe 18 June 2008. Retrieved from www.fao.org/docrep/010/ ai469e/ai469e00.htm.

[18] Food and Agriculture Organization (FAO). (2015b). Conservation agriculture contributes to Zimbabwe economic recovery. Retrieved from www.fao. Org|inaction|conversation-agriculture- contributes-to-Zimbabwe-economic-recovery|en|.

[19] Fries, R., and Akin, B. (2004). Value Chains and their significance for addressing the rural finance challenge. Accelerated Microenterprise Advancement Project, Micro REPORT No.73.Washington DC.

[20] Gukurume, S. (2010). Farming and the food security insecurity matrix in Zimbabwe: A case of ward 21 Chivi rural. Journal of Sustainable Development in Africa, 12(7), 40-52.

[21] Gukurume, S. (2013). Climate change, variability and sustainable agriculture in Zimbabwe’s rural communities Russian. Journal of sustainable Development in Africa, 12(7), 40-52.

[22] Jama, B., Amandou, I., Amadalo, B., Wolf, J., Rao, M. R. & Buresh, R. J. (1998). The Potential of Improved Fallows to Improve and Conserve the Fertility of Nutrients-Depleted Soils of Western Kenya. Agricultural Research and Development for Sustainable Resource Management and Increased Production. Proceedings of the 6th biennial KARI scientific conference, 9-13 November, 1998.

[23] KFSSG -Kenya Food Security Steering Group. (2008). Machakos District Long Rains Assessment Report 2008; 28th July 1st August.

[24] Kimaru, S. W. (2017). Zai pits and integrated soil fertility management enhances crop yields in the drier parts of Tharaka Nithi county, Kenya: DPhil thesis, School of Environmental Studies, Kenyatta University, Kenya, pp158.

[25] Kugedera, A. T and Chimbwanda, F. (2018). Partial substitution on maize with SV1 and Red Swazi at 30% level in broiler diets. Journal of Biodiversity Management and Forestry, 7 (3).

[26] DOI: 10.4172/2327-4417.1000202.

[27] Kugedera, A. T., Kokerai, L. K and Chimbwanda, F. (2018). Effects of insitu rainwater harvesting and integrated nutrient management options on sorghum production. Global Scientific Journals, 6 (12): 415-427.

[28] Macgarry, B. (1990). What Are We Promoting? A case study of the Introduction of a New Milling Technology in a Rural Area in Zimbabwe. Journal of Social Development in Africa, 5(1): 73-81.

[29] Mallet, M. & Plessis, P. (2001). A summary of current Knowledge about Pearl millet Post Harvest Issues in Namibia: Ministry of Agriculture, Water and Rural Development. Windhoek, Namibia.

[30] Moyo, S. (2011). Three decades of agrarian reform in Zimbabwe. The Journal of Peasant Studies, 8(3), 43-51. DOI: 10.1080/03066150.2011.583642.

[31] Muchirinepi, C. (2004). Grain revolution; Finger Millet and Livelihood transformation in Rural Zimbabwe. Zimbabwe: Africa Research Institute.

[32] Muchuru, S., and Nhamo, G. (2019). A review of climate change adaptation measures in the African crop sector. Climate and Development, 1-13. DOI: 10.1080|17565529.20191585319.

[33] Mukarumbwa, P., & Mushunje, A. (2010, September 19–23). Potential of sorghum and finger millet to enhance household food security in Zimbabwe’s semi – Arid regions: A Review. Paper presented at the Joint 3rd African Association of Agricultural Economics (AAAE) and 48th Agricultural Economists Association of South Africa.

[34] Musa, T.M., and Rusike, J. (1997). Constraints to variety Release, Seed Production and Distribution; Sorghum, Pearl Millet, Groundnut and Pigeon pea in SADC countries .Southern and Eastern Africa Region Working Paper No 97/02. ICRISAT.36Pp.

[35] Mutenje, M,J., Ortmann, G.F., Ferrer S.R. D., and Darroch, M.A.G. (2010). Rural livelihood diversity to manage economic shocks: Evidence from South East Zimbabwe. Agrekon, 49(3):338-357.

[36] Muui, C, Muasya, R.M, Nguluu, S, Kambura, A, Kathuli, P, Mweu, B & Odhiambo, D.O. (2019). Sorghum Landrases Production Practices in Nyanza, Coast and Eastern Regions, Kenya. Journal of Economics and Sustainable Development. Vol. 10, No .1, 2019:134-143.

[37] Muui, C., Muasya, R.M., and Kirubi, D.T. (2013). Baseline Survey on factors affecting sorghum production and use in eastern Kenya, African scholarly Science Communications trust.

[38] Mwadalu, R and Mwangi, M. (2013). The potential role of sorghum in enhancing food security in semi-arid eastern Kenya: A review. Journal of Applied Biosciences, 71(1), 5786-5799.

[39] National Research Council. (1996). Lost Crops of Africa. Volume 1: Grains National Academy Press. Washington, DC. USA.

[40] Nhemachena, C., Mano, R., Mudombi, S., and Muwanigwa, V. (2014). Climate change adaptation for rural communities dependent on agriculture and tourism in marginal farming areas of the Hwange

[41] District, Zimbabwe, African Journal of Agricultural Research, 9)26), 2045-2054. DOI: 10.5897/AJAR 2013.6779.

[42] Nyambati, R. O., Odhiambo, D. G., Serrem, C. K., Othieno, C. O and Mairura, F. S. (2020). Effects of Integrated Use of Calliandra calothyrsus and Maize Stover with Urea on Soil Mineral Nitrogen, Striga Infestation and Maize Yields in Western Kenya. Journal of Experimental Agriculture International, 42(1): 1-11. DOI: 10.9734/JEAI/2020/v42i130446.

[43] Rukuni, M., Tawonezvi, P., and Eicher, C. (2006). Zimbabwe’s agricultural revolution revisited. Harare. University of Zimbabwe Publications.

[44] Songa, W., Ronno, W. K. & Danial, D. L. (1994). Production Constraints of Beans in the Semi-arid Eastern Kenya with special reference to Charcoal rot. Proceedings of a Regional Workshop for Eastern, Central and Southern Africa, held at Njoro, Kenya. October 2nd-6th, 1994. Wageningen Agricultural University, Wageningen, 251-255.

[45] Sukume, C., Makudze, E., Mabeza-Chimedza, R., & Zitsanza, N. (2000). Comparative economic advantage of crop production in Zimbabwe (Technical Paper No. 99). Harare: Department of Agricultural

[46] Economics and Extension. University of Zimbabwe.

[47] Taremwa, N. K., Gashumba, D., Butera, A., &Ranganathan, T. (2016). Climate change adaptation in Rwanda through Indigenous knowledge practice. Journal of Social Sciences, 46(2), 165-175.

[48] DOI: 10.1080/09718923.2016.11893524.

[49] Taylor, J.K.N. (2003). Overview: Importance of Sorghum in Africa.

[50] Twomlow, S., Rohrbach, D., Dimes, J., Rusike, J., Mupangwa, W., Ncube, B., Hove, L., Moyo, M., Mashingaidze, N and Mahposa, P. (2008). Micro-dosing as a pathway to Africa’s Green Revolution: evidence from broad-scale on-farm trials. Nutr Cycl Agroecosyst, 88:3-15. DOI: 10.1007/s10705-008-9200-4.