Category
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Order Code |
Product Name |
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L-01-04-M06 |
Three-Dimensional 3D Mixer for Mining Laboratory Sample Preparation and Mineral Powder Blending |
The FKN PANDA Three-Dimensional (3D) Mixer is a multi-axis blending and fine grinding instrument designed for high-uniformity homogenization of free-flowing powders and granular materials in mining, metallurgical and material research laboratories.
Driven by universal joint transmission, the mixing barrel performs synchronized X, Y and Z axis movements to generate continuous diffusion, convection and shearing actions inside the chamber. This three-dimensional motion effectively improves material distribution and reduces uneven mixing caused by density differences between particles.
Integrating mixing and ball milling functions, the equipment supports combined homogenization and particle refinement processes, helping laboratories standardize sample pretreatment procedures and improve testing repeatability for mineral analysis and metallurgical evaluation.
The Three-Dimensional 3D Mixer is suitable for mining laboratory sample preparation, metallurgical testing and mineral material research applications requiring consistent blending of multi-component powders and granular materials.
It is widely applied for homogenizing mineral powders, blended ore samples and metallurgical material mixtures with different particle densities. The multi-axis movement helps reduce density segregation and provides more consistent test materials for mineral composition analysis, physical property testing and beneficiation performance evaluation.
In hydrometallurgical laboratory workflows, the integrated mixing and grinding capability supports ore powder homogenization before experimental procedures, helping maintain consistent sample conditions for laboratory evaluations. The equipment is also applicable to new energy mineral materials, ceramic raw materials and inorganic compound processing.
The X/Y/Z axis movement system creates continuous tumbling, diffusion and shearing effects throughout the mixing chamber. Compared with conventional single-plane mixing methods, this structure improves material redistribution and supports uniform blending of multi-density mineral samples.
The integrated design combines material homogenization and fine particle grinding in one process, reducing additional handling steps during laboratory pretreatment. This improves workflow efficiency for mineral and metallurgical sample preparation.
The optimized barrel design supports filling ratios up to 80%, allowing efficient processing of larger sample quantities while maintaining stable mixing performance. Multiple capacity models provide flexible selection for different laboratory and pilot-scale requirements.
The universal joint transmission structure provides stable mechanical movement during operation. Fixed low-speed spindle operation maintains consistent motion output, supporting reliable long-term laboratory use with reduced maintenance requirements.
| Parameter | Specification |
|---|---|
| Spindle Speed | 0–15 rpm |
| 40L Model | Max Loading Volume: 40L / Max Loading Weight: 40kg / Motor Power: 1.1kW / Dimensions: 1000×1400×1200mm / Weight: 300kg |
| 75L Model | Max Loading Volume: 75L / Max Loading Weight: 75kg / Motor Power: 1.5kW / Dimensions: 1200×1700×1500mm / Weight: 500kg |
| 160L Model | Max Loading Volume: 160L / Max Loading Weight: 160kg / Motor Power: 2.2kW / Dimensions: 1400×1800×1600mm / Weight: 800kg |
| 240L Model | Max Loading Volume: 240L / Max Loading Weight: 240kg / Motor Power: 4kW / Dimensions: 1400×1800×1600mm / Weight: 1200kg |
| 320L Model | Max Loading Volume: 320L / Max Loading Weight: 320kg / Motor Power: 4kW / Dimensions: 1800×2100×1950mm / Weight: 1200kg |
| 420L Model | Max Loading Volume: 420L / Max Loading Weight: 420kg / Motor Power: 5.5kW / Dimensions: 1900×2100×2100mm / Weight: 1380kg |
| 480L Model | Max Loading Volume: 480L / Max Loading Weight: 480kg / Motor Power: 5.5kW / Dimensions: 1900×2100×2250mm / Weight: 1500kg |
| 640L Model | Max Loading Volume: 640L / Max Loading Weight: 640kg / Motor Power: 7.5kW / Dimensions: 2200×2400×2300mm / Weight: 2000kg |
| 800L Model | Max Loading Volume: 800L / Max Loading Weight: 800kg / Motor Power: 7.5kW / Dimensions: 2250×2600×2600mm / Weight: 2500kg |
FKN PANDA Three-Dimensional (3D) Mixer is designed for high-uniformity sample pretreatment in mining, metallurgical and hydrometallurgy laboratories. The multi-axis motion structure improves blending consistency of mineral samples with different particle characteristics, supporting reliable testing results for mineral analysis and metallurgical evaluation.
With integrated mixing and ball milling functions and a loading capacity up to 80%, the equipment simplifies laboratory preparation procedures and improves batch processing efficiency. The wide model range provides flexible solutions from laboratory-scale experiments to larger pilot processing requirements.
The stable universal joint transmission system and low-speed operating design support long-term operational reliability with reduced maintenance requirements. By combining multiple processing functions into one unit, FKN PANDA provides practical and cost-effective sample preparation equipment for mining enterprises, metallurgical research institutions and laboratory distributors.
Q1. How to select a 3D mixer for mineral laboratory sample homogenization?
Selecting a 3D mixer for mining laboratory applications requires evaluation of sample characteristics, preparation objectives, and workflow requirements. Important considerations include mineral sample type, particle distribution, required mixing consistency, contamination control needs, and compatibility with downstream testing processes. In mineral laboratories, effective homogenization supports representative sample preparation before mineral analysis, metallurgical testing, and process evaluation. For new laboratory setup, expansion, or equipment replacement, laboratories should assess operational reliability, cleaning procedures, and integration with existing sample preparation workflows to ensure the selected equipment meets long-term testing requirements.
Q2. What factors influence mixing uniformity in three-dimensional motion systems?
Mixing uniformity in three-dimensional motion systems is influenced by sample characteristics, loading conditions, particle size distribution, material density differences, and mixing parameters. The multi-directional movement helps promote material redistribution, which can be valuable when preparing heterogeneous mineral samples. In mining laboratories, consistent homogenization is important because sample preparation quality directly affects the reliability of mineral analysis and metallurgical evaluation. Establishing suitable operating procedures based on sample behavior helps laboratories achieve repeatable results across different batches and maintain stable testing workflows.
Q3. How does multi-axis movement improve blending of heterogeneous ore samples?
Multi-axis movement allows samples to experience complex mixing patterns, helping improve the redistribution of particles with different sizes and densities. For heterogeneous ore samples, this movement can support more uniform blending compared with simple directional mixing methods. In mining laboratory workflows, improved sample homogenization is valuable before analytical testing, assay preparation, and metallurgical evaluation because representative samples are required for reliable process decisions. The actual mixing performance depends on sample properties, loading conditions, and operating procedures established by the laboratory.
Q4. Which mineral samples benefit most from 3D mixing technology?
3D mixing technology is suitable for laboratory applications where improved homogenization of mineral samples is required before testing. It can be considered for heterogeneous ores, mineral powders, and prepared samples that require consistent distribution of components before mineral analysis or metallurgical evaluation. Applications may include sample preparation for geochemical analysis, process testing, and quality control procedures. Laboratories should evaluate factors such as particle characteristics, moisture conditions, and contamination requirements to determine whether 3D mixing is appropriate for their specific testing workflow.
Q5. How to optimize mixing time for consistent analytical results?
Optimizing mixing time requires consideration of sample characteristics, batch conditions, and the required level of homogenization. Excessive mixing may increase operational time, while insufficient mixing may result in uneven sample distribution and inconsistent analytical results. In mining laboratories, mixing procedures should be developed according to actual sample behavior and testing requirements. Standardized mixing methods help improve repeatability between batches and provide more reliable preparation conditions for mineral analysis, metallurgical testing, and QA/QC programs.
Q6. How does 3D mixing improve repeatability in metallurgical sample preparation workflows?
3D mixing improves repeatability by providing a controlled approach to sample homogenization before metallurgical testing and mineral analysis. Consistent sample preparation reduces variation caused by uneven particle distribution and supports more reliable comparison between different test batches. In mining workflows, representative samples are essential for evaluating processing performance, including flotation, leaching, and other mineral processing studies. By integrating standardized mixing procedures into sample preparation, laboratories can improve workflow consistency and maintain reliable testing conditions during research and routine operations.
Q7. What materials should be selected for contamination-sensitive mineral laboratory applications?
Material selection is an important consideration for 3D mixers used in contamination-sensitive applications such as geochemical analysis and trace element testing. The contact materials should be evaluated according to sample properties, laboratory requirements, and contamination control procedures. Proper material selection helps reduce the risk of unwanted influence on analytical results and supports reliable sample preparation. Laboratories should consider equipment construction, cleaning requirements, and sample sensitivity when selecting mixing equipment for specialized mineral testing applications.
Q8. How can 3D mixers be integrated into mining laboratory sample preparation workflows?
3D mixers can be integrated into mining laboratory workflows after sample preparation stages such as crushing, grinding, or initial processing, depending on testing requirements. The homogenized sample can then proceed to splitting, mineral analysis, metallurgical testing, or other evaluation procedures. Effective integration requires consideration of sample transfer, cleaning processes, contamination prevention, and compatibility with downstream equipment. For laboratory expansion or new facility development, selecting equipment that fits the overall workflow helps improve efficiency and maintain consistent sample preparation standards.
Q9. What maintenance practices ensure long-term operational stability of 3D mixers?
Regular maintenance helps maintain stable operation and supports long-term reliability of 3D mixing equipment. Recommended practices include routine inspection of mechanical components, cleaning after different sample batches, monitoring operating conditions, and maintaining proper equipment handling procedures. In mining laboratories, maintenance is also important for preventing sample contamination and reducing unexpected interruptions in testing workflows. A structured maintenance schedule based on laboratory usage frequency helps ensure consistent performance during continuous mineral testing and metallurgical research operations.
Q10. When should a mining laboratory upgrade its 3D mixing equipment?
A mining laboratory may consider upgrading its 3D mixing equipment when current preparation processes cannot meet increasing sample volumes, consistency requirements, or changing testing demands. Equipment replacement may become necessary due to aging systems, expansion of mineral testing programs, or the need for improved workflow efficiency. Before upgrading, laboratory managers should evaluate sample characteristics, operational limitations, maintenance requirements, and compatibility with existing preparation and analysis procedures to select equipment that supports future laboratory development.
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