A shaking table, a key gravity separation device, utilizes the combined forces of gravity, water flow, and table oscillation to separate minerals based on differences in density, particle size, and shape. Its rectangular deck, tilted at a slight angle, vibrates longitudinally while a thin water film flows transversely, creating a dynamic environment where heavier particles settle and move toward the concentrate end, while lighter ones are carried away as tailings.

Shaking tables excel in processing fine to medium-grained materials (typically 0.074–2 mm) and are widely used in mineral processing for their high selectivity. They are widely used in ​​mineral processing, recycling, and chemical industries​​ for their ​​high precision and efficiency in fine particle separation​​.

Products Display

Material Application

Shaking Table Features

● Gold ores: Efficiently recover free-milling gold and placer gold. High-density gold particles (19.3 g/cm³) settle in concentrate zones, separating from lighter quartz or clay, even capturing micro-fine gold (0.01 mm) in low-grade ores.​
● Tin ores: Concentrate cassiterite (6.9–7.1 g/cm³) by separating it from quartz (2.65 g/cm³) and feldspar. Effective for reprocessing tailings to recover residual tin minerals.​
● Tungsten ores: Separate wolframite (7.0–7.5 g/cm³) and scheelite (5.9–6.1 g/cm³) from gangue. Enhance concentrate purity after pre-concentration steps, meeting smelting standards.​
● Rare earth minerals: Isolate heavy rare earths like xenotime (4.4–5.1 g/cm³) and monazite (4.6–5.4 g/cm³) from mineral sands, distinguishing them from ilmenite or silica despite small density differences.​
● Iron ores: Upgrade low-grade hematite (5.26 g/cm³) by removing silicate gangue (~2.7 g/cm³), suitable for small operations where magnetic separation is costly.​
● Base metals: Refine sulfide concentrates of galena (7.5 g/cm³), sphalerite (4.0–4.2 g/cm³), and chalcopyrite (4.1–4.3 g/cm³), removing residual silicates to boost smelting efficiency.

specification

*The output will vary according to different materials, feed particle size and other factors

Name bed surface for coarse sand bed surface for fine sand bed surface for slurry
Bed Length(mm) 4450 4450 4450
dimension transmission end width(mm) 1855 1855 1855
  concentrate ore width(mm) 1546 1546 1546
Max Feeding Size(mm) 2 0.5 0.15
Feeding volume(t/h) 30-60 10-20 15-25
Feeding density(%) 25-30 20-25 15-25
stroke(mm) 16-22 11-16 8-16
Frequency( t/s) 45-48 48-53 50-57
Cross Slope of Surface 2.5°-4.5° 1.5°-3.5° 1°-2°
mineral dressing area(㎡) 7.6 7.6 7.6
Shape of bed surface Rectangle indention Triangle
Motor Power(KW) 1.1 1.1 1.1
Driving type Eccentric link structure
Remarks: Any change of technical parameters, there is no further notice.

Product Recommendation

Profession Achieves High Quality | Built Tough | Works Smarter

logo.png
mobile-crusher-kefu.png