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Determination Of Work Index of Spodumene from Kenticha Ore, Southern Ethiopia
 
Więcej
Ukryj
1
North Shoa Mineral Development Authority, Ethiopia
 
2
Ministry of Mines, Ethiopia
 
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Autor do korespondencji
Anuwar Mama Kaso   

north shoa mineral development authority, Ethiopia
 
 
Mining Science 2025;32:119-134
 
SŁOWA KLUCZOWE
DZIEDZINY
STRESZCZENIE
The samples used for this study were granite and spodumene ore (2000 grams) (divided into four equal parts with 500 g), 500 g for chemical analysis, and granite (500 g) was separately used as reference ores from the Kenticha ore deposit. Each test ore was weighed at 2000 grams, and the reference ore was weighed at 500 grams, and all were ground in a lab ball mill under the same conditions. Size analysis of the feed to the ball mill and the output from the ball mill was performed on test ore and reference ore, with the results properly tabulated. The feed and discharge particle sizes for the samples into the ball mill were calculated using the Gaudian-Schumann formula to ensure an 80% passing rate. The work index for spodumene ore, as cited in the literature, is found in the range of 10.4–11.5 kWh/ton. In this study, the Modified Bond Index method was used to determine the work index of spodumene samples from kenticha ore using granite as a reference ore. The work index of the Kenticha spodumene ore was discovered to be 11.391 kWh/ton.
REFERENCJE (9)
1.
ALABI O., YARO S., DUNGKA G., ASUKE F., and DAUDA E., 2015, Determination of Work Index of Gyel Bukuru Columbite Ore in Plateau State, Nigeria, Scientific Research Publishing, Journal of Minerals and Materials Characterization and Eng., 3, 194–203.
 
2.
MENÉNDEZ-AGUADO J.M., DZIOBA B.R., and COELLO-VALAZQUEZ A.L., 2005, Determination of work index in a common laboratory mill, Mining, Metallurgy and Exploration, 22, 173–176.
 
3.
MICHAUD D., 2022, Table of Bond Work Index by minerals, Mineral Processing and Metallurgy, Retrieved from: https://www.911metallurgist.co....
 
4.
MOHAMMEDYASIN M.S., 2017, Geology, geochemistry and geochronology of the Kenticha rare metal granite pegmatite, Adola Belt, Southern Ethiopia: A Review, International Journal of Geo-sciences, 8 (1), 46–64.
 
5.
OSTROUSHKO Y.I., 1962, Lithium, its chemistry and technology, Vol. 4940, US Atomic Energy Commission, Division of Technical Information.
 
6.
TADESSE B., MAKUEI F., ALBIJANIC B., and DYER L., 2019, The beneficiation of lithium minerals from hard rock ores: A review, Minerals Engineering, 131, 170–184.
 
7.
TADESSE S., 2001, Geochemistry of the pegmatitic rocks and minerals in the Kenticha Belt, Southern Ethiopia: Implication to geological setting, Gondwana Research, 4 (1), 97–104.
 
8.
TADESSE S., MILESI J.P., and DESCHAMPS Y., 2003, Geology and mineral potential of Ethiopia: a note on geology and mineral map of Ethiopia, Journal of African Earth Sciences, 36 (4), 273–313.
 
9.
WILLS B.A. and NAPIER-MUM T.J., 2006, An Introduction to the Practical Aspects of Ore Treatment and Mineral Recovery. In: Mineral Processing Technology, 7th ed., pp. 109–115, Elsevier Science & Technology Books, Amsterdam.
 
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ISSN:2300-9586
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