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Progress of Soil Fertility and Soil Health Management Research for Arabica Coffee Production in Ethiopia

Published in Plant (Volume 9, Issue 3)
Received: 23 June 2021    Accepted: 22 July 2021    Published: 6 August 2021
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Abstract

Soil degradation is one of Ethiopia's most severe concerns, contributing for the country's low coffee production. Researchers have been conducted by different organizations for the past five decades to ameliorate the challenges. The goal of this review was to summarize and document major research achievements recorded so far and recommend future research directions. As a result, mixing coffee pulp and husk in the composting pile with organic elements like farm yard manure and leguminous plants generates nutritionally high-quality compost in 45 days. In terms of increasing coffee yield, decomposed coffee husk (DCH) was found to be superior to Sesbaniasesban compost. Compost application rates of 5 to 10 tons ha-1 (2 to 4 kg tree-1 in dry weight base) and an equal proportion of soil incorporation and surface (50:50%) application techniques were found to be superior in increasing coffee yield. 50% recommended NP mineral fertilizer (RMF) (172 and 77 kg ha-1 NP, respectively) + 50% recommended (DCH (10 ton ha-1 or 4 kg tree-1 on a dry weight basis), 50% RMF + 75% DCH, and Desmodiumspp (green manure crop) + RMF (172 and 63 kg ha-1 NP, respectively) significantly (P≤0.05) promote clean coffee yield at Agaro, Haru and Jimma, respectively. Forest soil or blends of top soils, compost and sand in 3:1:0 and 2:1:1 ratio, or organic manure and top soil mixture in 1:4, 2:4 and 3:4 ratios, produced strong and healthy coffee seedlings. A nursery pot amended with 750 mg P pot-1 (2.5 kg soil) and 2.31 g lime + 250 mg P pot-1 and 10 g lime + 800 mg P pot-1 produced released pure line and hybrid seedlings, respectively, with superior dry matter yield at Jimma. Similarly, at Haru, an application of 4 g pot-1 lime + 12.5 g pot-1 DCH and 18.75 g pot-1 DCH was a promising ameliorating management for acid soil for production of vigorous coffee seedlings for field planting. Future research should concentrate on evaluating other organic inputs and combined reclamation of lime-mineral fertilizer-compost, frequency of application, economic benefits, and long-term effects on soil physicochemical properties, coffee yield and bean quality, and establish cost effective soil fertility management in coffee-growing areas of the country. Furthermore, timely revision and calibration of mineral fertilizer recommendations made in the past with newly released coffee genotypes has become critical.

Published in Plant (Volume 9, Issue 3)
DOI 10.11648/j.plant.20210903.15
Page(s) 70-80
Creative Commons

This is an Open Access article, distributed under the terms of the Creative Commons Attribution 4.0 International License (http://creativecommons.org/licenses/by/4.0/), which permits unrestricted use, distribution and reproduction in any medium or format, provided the original work is properly cited.

Copyright

Copyright © The Author(s), 2024. Published by Science Publishing Group

Keywords

Acid Soil, Arabica Coffee, Inorganic Fertilizer, Integrated Organic and Inorganic Fertilizer, Organic Fertilizer

References
[1] AntenehNetsere and HelufGeberekidane. 2007. Response of Arabica coffee seedling to lime and phosphorus: II. Dry matter production and distribution. p. 1095-1100. In: International.
[2] AntenehNetsere, EndaleTaye, TesfayeShimber, TayeKufa and AmanualeAsrat. 2008. Pre-planting Management of Arabica coffee in Ethiopia. Pp 178- 186. In: Proceedings of a National Workshop Four Decades of Coffee Research and Development in Ethiopia, 14-17 August 2007, Addis Ababa, Ethiopia.
[3] AntenehNetsere. 2015. Advance in Arabica forest coffee management research in Ethiopia. Journal of Biology, Agriculture and Healthcare, 5 (9): 31 – 35.
[4] BikilaTakel, TayeKufa, AlemayehuRegassa. 2020. Effects of lime and coffee husk compost on growth of coffee seedlings on acidic soil of Haru in Western Ethiopia. Journal of Degraded and Mining Lands Management 8 (1): 2391-2400.
[5] Brady, N. C. and R. R. Weil, 2017. Nature and Properties of Soils (15th edn.). Prentice Hall, Upper Saddle River. 1082pp.
[6] CSA, 2016. Statistical report on agricultural activities. Addis Ababa, Ethiopia. 330p.
[7] Chane Abate. 1999. Management of coffee processing byproducts for improved and sustainable coffee production in Ethiopia, PhD dissertation, University of Giessen, Germany.
[8] Ethiopian Agricultural Research Oganization (EARO). 1999. Annual Research Report, Addis Ababa, Ethiopia.
[9] EwnetuTeshale, TayeKufa and AlemayehuRegassa. 2019. Effects of Lime and Phosphorus Rates on Growth of Hybrid Arabica Coffee Seedlings at Jimma, Southwest Ethiopia. Journal of Biology, Agriculture and Healthcare 9 (15). 37 – 46 pp.
[10] Fageria, N. K., V. C. Baligar and C. A. Jones, 2011. Growth and Nineral Nutrition of Field Crops (3rd edn.). New York. 550p.
[11] FissehaHadgu, PaulosDubale, ZebeneMikru, Petros K/Mariam and GirmaGintamo. 1993. The effect of coffee (Coffeaarabica L.) to N and P fertilizers at Wonago. In: Soil – the resource base for survival (In: TekalignMamo and Mitku Haile, eds), proceedings of the second conference of Ethiopian Society of Soil Science (ESSS), 23 – 24 September 1993, Addis Ababa, Ethiopia.
[12] Hoofner W. and M. Schmitz. 1984. Report of the soil and folia analysis in 15 CIP areas of ==in socislistEthipia. EEC/MCTD, Addis Ababa, Ethiopia.
[13] IAR (Institute of Agricultural Research). 1978/79. Coffee Department Progress Report.
[14] IAR Coffee Research Team Progress Report for the period 1982/83.
[15] IAR Progress Report, Coffee Department fr the period 1984/85.
[16] IAR (Institute of Agricultural Research). 1996. Recommended production technologies for coffee and associated crops, IAR, Addis Ababa.
[17] Jimma Agricultural Research Centre (JARC). 2005. Progress report for the year 2005. EIAR/JARC, Jimma, Ethiopia.
[18] Jimma Agricultural Research Centre (JARC). 2010. Progress report for the year 2005. EIAR/JARC, Jimma, Ethiopia.
[19] Jimma Agricultural Research Centre (JARC). 2020. Progress report for the year 2019. EIAR/JARC, Jimma, Ethiopia.
[20] ObsaAtnafu, Mohammed Kedir, EwnetuTeshale and MeseretNugusie. 2021. International Journal of Current Research and Academic Review. 9 (1): 86-94.
[21] PaulosDubale. 1986. The effect of inorganic fertilizer on the yield of Arabica coffee in some areas of Ethiopia. In: Soil Science Research in Ethiopia, a review (DestaBeyene, ed.), proceedings of the first soil science research review workshop, 11 – 14 February 1986, Institute of Agricultural Research (IAR), Addis Ababa, Ethiopia.
[22] PaulosDubale. 1994. Ecology and soils of the major coffee growing regions of Ethiopia. In: PaulosDubale (ed.), Mineral Fertilization of Coffee in Ethiopia, Institute of Agricultural Research, Addis Ababa, Ethiopia.
[23] Sanchez, G., Eugenia, J., Olguin and Gabriel, M. 1999. Accelerated coffee pulp composting. Biodegradation (10): 35-41.
[24] Solomon Endris. 2006. Accelerated composting of coffee processing by-products: an organic option for soil fertility management in the coffee based cropping system of South-western Ethiopia. Proceedings, 21st International Scientific Conference, ASIC, Montpelier, France. PP. 1084 – 1089.
[25] Solomon Endris. Tesfu, K. And Tesfaye, Y. 2008. Inorganic fertilizer management and coffee production. In: Coffee Diversity and knowledge (Girma, A; Bayetta, B; Tesfaye, S; Endale, T. and Taye, K. Edds). Proceedings of a National work shop four decades of coffee research and development in Ethiopia. Pp. 217-225.
[26] Solomon Endris. 2014. The role of nutrient inputs in specialty and conventional coffee production systems in Ethiopia: Balancing productivity with niche market requirement. Proceedings of National Conferences, March 14-14, 2014. The Biological Society of Ethiopia, Addis Ababa, Ethiopia, 147pp.
[27] TayeKufa, MesfinAbebe and PaulosDubale. 1999. Effect of nitrogen, phosphorus and organic fertilizer on growth and development of coffee seedlings. Pp. 213-223. In: Proceedings of African Crop Science Conference. African Crop Science Society, Vol. 4, Kampala, Uganda.
[28] TayeKufa, EndaleTaye, AlemsegedYilma, TesfayeShimber and AntenehNestere. 2007. The use of Sesbaniasesbanand coffee compost as complements to mineral fertilizer for coffee production in southwest Ethiopia.
[29] TesfuKebede and ZebeneMikru. 2004. Effects of phosphorus fertilizer placement on the growth of arabica coffee seedlings. Paper presented on 20th International Conference on coffee Science, ASIC, October 11 to 15, 2004, Bangalore, India. pp 1016-1022.
[30] TesfuKebede and ZebeneMikru. 2006. The nutrient status of long term fertilized soils of coffee plantation in south western Ethiopia. Paper presented on 20th International Conference on coffee Science, ASIC, October 11 to 15, 2006, Montpellier, France. pp 1016-1022.
[31] VanderVossen, H. A. M. 2004. Organic Coffee Production: Myth or Reality – A review. Proceedings 20th International Scientific Conference, Bangalore, India. ASIC, Paris, France, PP. 960 – 983.
[32] Wintgens J. N. 2004. Coffee: Growing, Processing, Sustainable Production. A guide for growers, traders, and researche.
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  • APA Style

    Anteneh Netsere, Bikila Takala. (2021). Progress of Soil Fertility and Soil Health Management Research for Arabica Coffee Production in Ethiopia. Plant, 9(3), 70-80. https://doi.org/10.11648/j.plant.20210903.15

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    Anteneh Netsere; Bikila Takala. Progress of Soil Fertility and Soil Health Management Research for Arabica Coffee Production in Ethiopia. Plant. 2021, 9(3), 70-80. doi: 10.11648/j.plant.20210903.15

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    AMA Style

    Anteneh Netsere, Bikila Takala. Progress of Soil Fertility and Soil Health Management Research for Arabica Coffee Production in Ethiopia. Plant. 2021;9(3):70-80. doi: 10.11648/j.plant.20210903.15

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  • @article{10.11648/j.plant.20210903.15,
      author = {Anteneh Netsere and Bikila Takala},
      title = {Progress of Soil Fertility and Soil Health Management Research for Arabica Coffee Production in Ethiopia},
      journal = {Plant},
      volume = {9},
      number = {3},
      pages = {70-80},
      doi = {10.11648/j.plant.20210903.15},
      url = {https://doi.org/10.11648/j.plant.20210903.15},
      eprint = {https://article.sciencepublishinggroup.com/pdf/10.11648.j.plant.20210903.15},
      abstract = {Soil degradation is one of Ethiopia's most severe concerns, contributing for the country's low coffee production. Researchers have been conducted by different organizations for the past five decades to ameliorate the challenges. The goal of this review was to summarize and document major research achievements recorded so far and recommend future research directions. As a result, mixing coffee pulp and husk in the composting pile with organic elements like farm yard manure and leguminous plants generates nutritionally high-quality compost in 45 days. In terms of increasing coffee yield, decomposed coffee husk (DCH) was found to be superior to Sesbaniasesban compost. Compost application rates of 5 to 10 tons ha-1 (2 to 4 kg tree-1 in dry weight base) and an equal proportion of soil incorporation and surface (50:50%) application techniques were found to be superior in increasing coffee yield. 50% recommended NP mineral fertilizer (RMF) (172 and 77 kg ha-1 NP, respectively) + 50% recommended (DCH (10 ton ha-1 or 4 kg tree-1 on a dry weight basis), 50% RMF + 75% DCH, and Desmodiumspp (green manure crop) + RMF (172 and 63 kg ha-1 NP, respectively) significantly (P≤0.05) promote clean coffee yield at Agaro, Haru and Jimma, respectively. Forest soil or blends of top soils, compost and sand in 3:1:0 and 2:1:1 ratio, or organic manure and top soil mixture in 1:4, 2:4 and 3:4 ratios, produced strong and healthy coffee seedlings. A nursery pot amended with 750 mg P pot-1 (2.5 kg soil) and 2.31 g lime + 250 mg P pot-1 and 10 g lime + 800 mg P pot-1 produced released pure line and hybrid seedlings, respectively, with superior dry matter yield at Jimma. Similarly, at Haru, an application of 4 g pot-1 lime + 12.5 g pot-1 DCH and 18.75 g pot-1 DCH was a promising ameliorating management for acid soil for production of vigorous coffee seedlings for field planting. Future research should concentrate on evaluating other organic inputs and combined reclamation of lime-mineral fertilizer-compost, frequency of application, economic benefits, and long-term effects on soil physicochemical properties, coffee yield and bean quality, and establish cost effective soil fertility management in coffee-growing areas of the country. Furthermore, timely revision and calibration of mineral fertilizer recommendations made in the past with newly released coffee genotypes has become critical.},
     year = {2021}
    }
    

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    AU  - Bikila Takala
    Y1  - 2021/08/06
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    AB  - Soil degradation is one of Ethiopia's most severe concerns, contributing for the country's low coffee production. Researchers have been conducted by different organizations for the past five decades to ameliorate the challenges. The goal of this review was to summarize and document major research achievements recorded so far and recommend future research directions. As a result, mixing coffee pulp and husk in the composting pile with organic elements like farm yard manure and leguminous plants generates nutritionally high-quality compost in 45 days. In terms of increasing coffee yield, decomposed coffee husk (DCH) was found to be superior to Sesbaniasesban compost. Compost application rates of 5 to 10 tons ha-1 (2 to 4 kg tree-1 in dry weight base) and an equal proportion of soil incorporation and surface (50:50%) application techniques were found to be superior in increasing coffee yield. 50% recommended NP mineral fertilizer (RMF) (172 and 77 kg ha-1 NP, respectively) + 50% recommended (DCH (10 ton ha-1 or 4 kg tree-1 on a dry weight basis), 50% RMF + 75% DCH, and Desmodiumspp (green manure crop) + RMF (172 and 63 kg ha-1 NP, respectively) significantly (P≤0.05) promote clean coffee yield at Agaro, Haru and Jimma, respectively. Forest soil or blends of top soils, compost and sand in 3:1:0 and 2:1:1 ratio, or organic manure and top soil mixture in 1:4, 2:4 and 3:4 ratios, produced strong and healthy coffee seedlings. A nursery pot amended with 750 mg P pot-1 (2.5 kg soil) and 2.31 g lime + 250 mg P pot-1 and 10 g lime + 800 mg P pot-1 produced released pure line and hybrid seedlings, respectively, with superior dry matter yield at Jimma. Similarly, at Haru, an application of 4 g pot-1 lime + 12.5 g pot-1 DCH and 18.75 g pot-1 DCH was a promising ameliorating management for acid soil for production of vigorous coffee seedlings for field planting. Future research should concentrate on evaluating other organic inputs and combined reclamation of lime-mineral fertilizer-compost, frequency of application, economic benefits, and long-term effects on soil physicochemical properties, coffee yield and bean quality, and establish cost effective soil fertility management in coffee-growing areas of the country. Furthermore, timely revision and calibration of mineral fertilizer recommendations made in the past with newly released coffee genotypes has become critical.
    VL  - 9
    IS  - 3
    ER  - 

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Author Information
  • Ethiopian Institute of Agricultural Research, Jimma Research Center, Natural Resource Management Research Process, Jimma, Ethiopia

  • Ethiopian Institute of Agricultural Research, Jimma Research Center, Natural Resource Management Research Process, Jimma, Ethiopia

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