A comprehensive recovery method for uranium-containing low-grade polymetallic ore
A polymetallic ore recovery method technology, which is applied in the comprehensive recovery of green and efficient beneficiation of uranium-containing low-grade polymetallic ores, and in the field of comprehensive recovery of uranium-containing low-grade polymetallic ores. Problems such as selection of equipment and pipelines can be achieved to improve the recovery rate of gravity separation, reduce the amount of sulfuric acid, and reduce the content of carbonate
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Embodiment 1
[0072] A low-grade polymetallic uranium mine in Shaanxi is mainly composed of barite, calcite, feldspar, quartz, pyrite, galena, titanite, hornblende, biotite, epidote, garnet, magnetite , zircon, apatite, pitchblende, beta stone and other minerals, the main useful minerals are beta stone, galena, magnetite, etc., the grade of uranium is 0.016%, the grade of niobium is 0.017%, and the grade of lead is 0.54% %, iron grade is 4.04%.
[0073] (1) Firstly, the ore is finely crushed to -5mm, and the spiral chute is used for separation to obtain the spiral chute gravity separation coarse concentrate and gravity separation tailings 1.
[0074] (2) Grind the spiral chute re-selected coarse concentrate obtained in (1) to a fineness of less than 0.6mm, and divide the ore after grinding into five particle grades, which are -0.6~+0.4mm, -0.4~+ 0.2mm, -0.2~+0.074mm, -0.074~+0.043mm, -0.043mm. The first four particle fractions are re-selected with a shaking table, and the four gravity-sel...
Embodiment 2
[0086] A low-grade polymetallic uranium mine in Shaanxi is mainly composed of barite, calcite, feldspar, quartz, pyrite, galena, titanite, hornblende, biotite, epidote, garnet, magnetite , zircon, apatite, pitchblende, beta stone and other minerals, the main useful minerals are beta stone, galena, magnetite, etc., the grade of uranium is 0.016%, the grade of niobium is 0.017%, and the grade of lead is 0.54% %, iron grade is 4.04%.
[0087] (1) Firstly, the ore is finely crushed to -3.5mm, and the spiral chute is used for separation to obtain the spiral chute gravity separation coarse concentrate and gravity separation tailings 1.
[0088] (2) Grind the spiral chute re-selection coarse concentrate obtained in (1) to a fineness of less than 0.4mm, and divide the ore after grinding into four grades, which are -0.4~+0.2mm, -0.2~+ 0.074mm, -0.074~+0.043mm, -0.043mm. The first three particle fractions are re-selected with a shaking table, and the obtained three gravity-selected co...
Embodiment 3
[0101] A low-grade polymetallic uranium mine in Shaanxi is mainly composed of barite, calcite, feldspar, quartz, pyrite, galena, titanite, hornblende, biotite, epidote, garnet, magnetite , zircon, apatite, pitchblende, beta stone and other minerals, the main useful minerals are beta stone, galena, magnetite, etc., the grade of uranium is 0.016%, the grade of niobium is 0.017%, and the grade of lead is 0.54% %, iron grade is 4.04%.
[0102] (1) Firstly, the ore is finely crushed to -3mm, and the spiral chute is used for sorting, and the spiral chute gravity separation coarse concentrate and gravity separation tailings 1 are obtained.
[0103] (2) Grind the spiral chute re-election coarse concentrate obtained in (1) until the fineness is less than 0.3mm, and divide the ore after grinding into three particle grades, which are -0.3~+0.15mm, -0.15~+ 0.074mm, -0.074~+0.043mm, -0.043mm. The first two particle fractions are re-selected with a shaking table, and the obtained two grav...
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