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19STUDY OF THE MATERIAL COMPOSITION OF TITANIUM-MAGNETIC
ORE OF THE TEBINBULAK DEPOSIT
Uchkun Azamat Oybek Azamat Azamat
Khudoynazar Yusupovich o'g'li Kayumov Abdurashidovich
o'g'li Eshonkulov Shukurov Umirzoqov
Karshi Engineering Economics Institute Tashkent State
Technical University
ABSTRACT
In job the results of study of material structure tests of titan-magnetite iron ore of a deposit Tebinbulak are given. Industrial - valuable component is iron. On the basis of study of material structure for processing ore it is possible to recommend gravitation and magnetic separation.
Keywords: titanium-magnetic, tebinbulak deposit, temirkan, vanadium, material.
In the Republic of Uzbekistan there are iron-containing deposits Temirkan in the Jizzakh region, Surenata in the Tashkent region, Tebinbulak in the Republic of Karakalpakstan, etc.
Uzbekistan has significant reserves of titanium-magnetite ores at the Tebinbulak deposit in Karakalpakstan. The preliminary estimated reserves of the deposit are 452.3 million tons with the following chemical composition: iron-15-16%, titanium-2-3%, vanadium-0.15%. The reserves are estimated at 3.5 billion tons [1-8].
Titanomagnetite is a type of ore raw material with a complex composition, which contains iron oxides, titanium dioxide and vanadium pentoxide.
The technology for processing titanomagnetite ores differs from the technology for beneficiation of iron ores in that during the processing it is necessary to separate vanadium and titanium oxides from iron oxides [9-16].
Until now, iron ores have not been processed in the republic. In the coming years, it is planned to build an enrichment plant at the Tebinbulak deposit with subsequent processing of the concentrate at a metallurgical plant in the city of Bekabad.
We have studied the material composition of a titanomagnetite ore sample taken at the Tebinbulak deposit.
The ore sample was prepared for research according to the standard method (Fig. 1). In the process of preparing a sample, an average sample was taken from it for spectral and chemical analyzes [17-23].
The results of the semi-quantitative spectral analysis of the average ore sample are shown in Table 1.
sampling for mineralogical research
SCHEME OF PREPARING ORE SAMPLES FOR TESTS
Ore
sampling for mineralogical research
Splitting up
I
Screening
+
-3+0mm
Mixing
For technological tests Isolation of the middle sample
Trial
For various analyzes
Pic. 1. Scheme for preparing an ore sample for testing
Table 1
Results of spectral analysis of the average ore sample
The elements Content, 10-3% The elements The elements
Barium 7 Nickel 50
Beryllium 0,2 Tin <0,6
Vanadium >110 Lead <1
Bismuth <0,2 Silver 0,02
Tungsten <0,3 Antimony 5
gallium 3 Titanium 700
Germanium 0,5 Chromium 15
Cadmium <0,1 Zinc 20
Cobalt 10 Gold <0,03
Manganese 150 Niobium <0,4
Copper 50 Tantalum <10
Molybdenum 0,1 Lithium <3
Arsenic <2
The results of the chemical analysis of the average ore samp
e are shown in Table 2.
Table 2
Results of chemical analysis of the average ore sample
Component name Content in the Component name Content in the
sample,% sample,, %
SiO2 39,82 K2O 0,84
Fe2O3 11,93 Na2O 1,46
FeO 7,27 ^бщ. <0,4
TiO2 1,74 S сульфид. 0,036
V2O5 0,06 S03 <0,01
MnO 0,14 СО2 0,22
AI2O3 9,44 P2O5 0,13
CaO 14,84 -Н2О 0,2
MgO 10,0 п.п.п. 1,2
To clarify the distribution of iron by size classes, the average sample with a particle size of -3 + 0 mm was subjected to sieve analysis, the results of which are shown in Table 3.
Table 3
Sieve analysis results of the average ore sample
Size class, mm Output, % Iron content, % Iron distribution, %
-3+2,5 8,73 10,5 7,23
-2,5+2,0 6,98 15,2 8,37
-2,0+1,5 7,48 15,2 8,97
-1,5+1,0 12,72 6,5 6,52
-1,0+0,5 21,45 14,7 24,86
-0,5+0,315 15,71 14,21 17,6
-0,315+0,15 14,96 14,1 16,63
-0,15+0,063 7,23 14,1 8,04
-0,063+0 4,74 4,76 1,78
Руда 100 12,68 100
Based on the results of sieve analysis, it can be concluded that iron is unevenly distributed throughout the sample.
As a result of studying the material composition of a sample of titanomagnetite ore from the Tebinbulak deposit:
Iron is a valuable component of the ore, titanium and vanadium are associated. The ore characterizes the titanomagnetite type [24-27].
The iron content in the sample is 13.5%. Associated useful components - titanium dioxide-1.74% and vanadium pentoxide-0.06%.
Sulfur and phosphorus in the sample are insignificant.
The main ore minerals of the sample are titanomagnetite, ilmenite, hematite and titanite [28-30].
Based on the study of the material composition for ore processing, it is possible to recommend the methods of gravity and magnetic separation.
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