Category
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Order Code |
Product Name |
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L-01-11-M05 |
Laboratory Small Shaking Table for Mining Gravity Separation Testing |
The Laboratory Small Shaking Table is a compact gravity separation test device developed from industrial 6-S shaking tables for mineral processing experiments and academic research. It maintains the same gravity separation principles as industrial equipment while providing a space-efficient solution for laboratory-scale mineral testing and process evaluation.
The equipment supports separation testing of coarse sand, fine sand, and slime fractions through adjustable stroke, frequency, and transverse slope parameters. With high concentration ratio and one-pass separation capability, it produces concentrate and tailings samples for mineral analysis, process development, and industrial gravity separation research.
The Laboratory Small Shaking Table is widely applied in mining laboratories, metallurgical research institutions, universities, and mineral processing research departments for gravity separation testing and beneficiation evaluation.
The equipment performs gravity roughing, cleaning, and scavenging tests for tungsten, tin, tantalum, niobium, iron, manganese, chromium, titanium, bismuth, lead, gold, coal, and other mineral resources. It separates target minerals from gangue based on density differences, preparing concentrate samples for subsequent mineral composition analysis and grade evaluation.
The shaking table helps evaluate gravity separation feasibility and optimize operational conditions including stroke, oscillation frequency, and transverse slope. It provides repeatable beneficiation indicators for mineral property evaluation and process condition studies.
Suitable for university laboratories, research institutions, and mine testing facilities, the equipment provides experimental data that can support industrial gravity separation workflow design and process improvement.
The laboratory shaking table follows industrial shaking table separation mechanisms, maintaining consistent gravity concentration principles and providing laboratory results that can be referenced for production-scale process evaluation.
Stroke, oscillation frequency, and transverse slope can be adjusted according to different mineral characteristics, allowing laboratory technicians to optimize gravity separation conditions during testing.
The equipment supports coarse sand, fine sand, and slime processing, adapting to different mineral sample preparation requirements and diversified gravity separation experiments.
With high concentration ratio and single-pass separation capability, the unit can directly produce concentrate and tailings samples, simplifying testing procedures and improving laboratory workflow efficiency.
Available in standard, medium, and mini compact models, the shaking table accommodates different laboratory spaces and testing scales while maintaining stable separation performance.
| Parameter | Standard Model | Medium Model | Mini Model |
|---|---|---|---|
| Deck Size (mm) | 3000×1620×1360 | 2100×1050×850 | 1100×500×430 |
| Stroke (mm) | 6–30 | 12–28 | 9–17 |
| Frequency (times/min) | 210–320 | 250–450 | 280–460 |
| Transverse Slope | 0–10° | 0–8° | 0–10° |
| Ore Sand Deck Feed Size | ＜2mm | ＜2mm | ＜2mm |
| Slime Deck Feed Size | ＜0.1mm | ＜0.074mm | ＜0.074mm |
| Feed Pulp Density | 10–30 | 10–30 | 10–30 |
| Ore Sand Capacity (t/h) | 0.7–1.5 | 0.4–0.8 | 0.1–0.2 |
| Slime Capacity (t/h) | 0.4–1.0 | 0.3–0.5 | 0.05–0.1 |
| Water Consumption (t/h) | 0.3–1.5 | 0.2–1.0 | 0.1–0.8 |
| Motor Model | Y 100L-4 | Y 90L-4 | Y 80L-4 |
| Motor Power | 1.1kW | 1.1kW | 0.55kW |
| Motor Speed | 1400RPM | 1400RPM | 1400RPM |
| Overall Dimensions (mm) | 4075×1620×1360 | 3040×1050×850 | 1530×500×430 |
| Belt Model | A-1033 | B-2007 | A-1245 |
| Deck Weight (kg) | 270 | 180 | 50 |
Three customizable model sizes are available, including standard, medium, and mini compact configurations. Each model supports adjustable stroke, frequency, and slope parameters to meet different mineral types, laboratory layouts, and experimental requirements.
FKN PANDA Laboratory Small Shaking Table applies industrial-compatible gravity separation principles with controllable mechanical parameters, providing stable density-based separation results and repeatable mineral testing data for laboratory research.
The optimized oscillation structure and matched dedicated motors support repeated laboratory operation. Durable components help maintain consistent separation performance during frequent testing cycles and reduce maintenance requirements.
Adjustable operating parameters and one-pass concentrate-tailings separation simplify experimental procedures, reduce adjustment time, and improve mineral processing research efficiency.
Designed for laboratory gravity separation workflows, the equipment supports mineral property testing, sample preparation, and beneficiation research for precious metals, rare metals, and industrial minerals.
Multiple model sizes allow laboratories to select suitable configurations according to testing scale and space requirements. Low water and power consumption together with durable construction help reduce long-term operating and maintenance costs.
Q1. What factors should be considered when selecting a laboratory shaking table for mineral processing research?
Selecting a laboratory shaking table requires consideration of ore characteristics, particle size distribution, mineral density differences, and the objectives of gravity separation testing. Important factors include deck configuration, adjustment flexibility, feed conditions, and compatibility with different mineral samples. For mining laboratories, the equipment should support reliable evaluation from sample preparation and mineral testing to metallurgical assessment. A suitable shaking table helps engineers study separation behavior, concentrate quality, and recovery potential before making process decisions for gravity concentration applications.
Q2. How does a laboratory shaking table support mineral testing and gravity separation studies?
A laboratory shaking table is used to evaluate the concentration behavior of heavy minerals under controlled gravity separation conditions. It allows researchers to study the influence of operating parameters such as deck inclination, stroke characteristics, feed distribution, and wash water flow. In a mining laboratory workflow, shaking table tests provide technical information during mineral testing and metallurgical evaluation, helping engineers understand the separation response of ores containing valuable heavy minerals such as gold, tin, tungsten, and other dense mineral resources.
Q3. What factors should be considered when setting up shaking table testing capability in a new mineral processing laboratory?
When establishing shaking table testing capability, laboratories should consider the types of ores to be evaluated, expected test procedures, sample preparation requirements, and supporting analytical equipment. Proper planning includes selecting suitable operating flexibility for different mineral systems and ensuring stable test conditions. For new laboratory setups or expansion projects, shaking table equipment should align with research objectives such as gravity separation evaluation, process optimization, and metallurgical testing. A properly configured testing system supports repeatable experiments and reliable process analysis.
Q4. How do deck inclination and stroke adjustment affect shaking table separation performance?
Deck inclination and stroke adjustment are important operating parameters that influence mineral movement and separation behavior on a shaking table. Changes in these settings can affect the migration path of particles with different densities and sizes, influencing concentrate band formation and separation sharpness. During laboratory testing, engineers typically optimize these parameters according to ore characteristics and desired separation objectives. Proper adjustment helps improve understanding of mineral response and supports accurate evaluation of gravity concentration performance during metallurgical studies.
Q5. How does wash water flow affect concentrate quality during laboratory shaking table tests?
Wash water flow plays an important role in controlling particle movement and concentrate cleaning during shaking table operation. Insufficient or excessive water flow may affect mineral band formation, separation clarity, and concentrate quality. Laboratory operators should adjust wash water conditions according to feed properties, mineral density differences, and testing objectives. Maintaining appropriate water distribution helps researchers obtain more representative gravity separation results and provides useful data for evaluating mineral processing options in laboratory-scale studies.
Q6. Can a laboratory shaking table be used for fine mineral separation studies?
Yes, laboratory shaking tables can be applied in studies involving fine heavy mineral separation when suitable operating conditions are established. They are commonly used to evaluate the separation behavior of minerals where density differences provide a basis for concentration. Applications may include research on fine gold, cassiterite, scheelite, manganese minerals, and heavy mineral sands. In mining laboratories, shaking table testing supports mineral characterization, gravity concentration research, and process evaluation by providing information on recovery potential and concentrate quality.
Q7. What maintenance is required for a laboratory shaking table during continuous operation?
Routine maintenance of a laboratory shaking table focuses on maintaining mechanical stability and consistent operating conditions. Key procedures include inspecting the head motion mechanism, checking moving components, cleaning the deck surface, and monitoring wear of contact parts. Regular maintenance helps reduce operational interruptions and supports repeatable gravity separation testing. For laboratories conducting continuous mineral processing research, proper inspection schedules and timely replacement of wear components contribute to reliable equipment operation and long-term testing efficiency.
Q8. How should a laboratory shaking table be selected for different ore types?
The selection of a laboratory shaking table should be based on ore properties, including mineral density differences, particle size range, mineral liberation characteristics, and research objectives. Different ores may require different deck configurations and operating adjustments to achieve meaningful separation results. For example, heavy mineral ores, precious metal samples, and industrial minerals may have different gravity concentration requirements. A suitable equipment selection approach helps mineral processing engineers conduct representative tests and obtain useful data for further metallurgical evaluation.
Q9. What problems can occur when shaking table operating conditions are not properly controlled?
Incorrect operating conditions can affect the reliability of shaking table test results. Issues such as improper deck leveling, unstable feed distribution, unsuitable water flow, or incorrect stroke settings may cause poor mineral band formation and reduced separation clarity. These factors can make it difficult to compare test results between different samples. Maintaining controlled operating parameters and following consistent testing procedures helps laboratories improve repeatability and obtain more accurate information for mineral processing research and process decision-making.
Q10. When should a mineral processing laboratory upgrade to a variable-speed shaking table system?
A mineral processing laboratory may consider upgrading to a variable-speed shaking table system when research requirements involve a wider range of ore types or more detailed gravity separation studies. Adjustable operating parameters provide greater flexibility when evaluating different mineral characteristics and process conditions. During laboratory expansion or equipment replacement, the decision should be based on testing objectives, workflow requirements, and the need for improved experimental control. Enhanced adjustment capability can support more comprehensive mineral testing and metallurgical evaluation programs.
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