Order Code	Product Name
L-02-02-M03	Laboratory Orbital Shaker for Mining Sample Mixing and Hydrometallurgical Testing

Laboratory Orbital Shaker for Mining Sample Mixing and Hydrometallurgical Testing

Brief Introduction

FKN PANDA Laboratory Orbital Shaker is a compact 3D vibrating mixing device designed for mineral sample preparation, wet chemical testing and hydrometallurgical laboratory applications. Featuring a 7° three-dimensional swinging vibration mode and stepless speed regulation from 0 to 80 rpm, it provides stable and uniform agitation for laboratory containers and mineral sample vessels.

Built with a durable aluminum alloy shelf, anti-slip silicone padding and elastic fixing rack, the shaker supports different container types while maintaining stable sample positioning during operation. Its universal 110V–240V wide-voltage compatibility and compact 240×210mm footprint allow flexible installation in mining laboratories, incubators and low-temperature chambers.

Application Scope

This laboratory orbital shaker integrates into standard mining laboratory workflows including mineral sample preparation, metallurgical testing, mineral analysis and hydrometallurgical wet laboratory procedures.

Mineral Sample Preparation

The shaker provides gentle homogenization and conditioning for finely crushed ore suspensions, soil-mineral mixtures and residue samples. The uniform 3D vibration motion reduces solid particle sedimentation and maintains consistent sample conditions before centrifugation, filtration and instrumental analysis.

Metallurgical Testing and Mineral Analysis

During metallurgical experiments, the unit maintains stable mixing conditions for colorimetric analysis, reagent reaction and parallel sample comparison tests. Consistent shaking speed reduces manual operation variation and supports repeatable analytical results during mineral testing procedures.

Hydrometallurgical Laboratory Applications

The shaker supports low-temperature static leaching simulation, solvent extraction pretreatment and wet chemical reaction incubation. The incubator-compatible structure enables controlled oscillating reactions for laboratory evaluation of mineral processing and hydrometallurgical procedures.

Features

• Compact incubator-compatible design: The lightweight structure allows flexible placement inside standard laboratory incubators and low-temperature chambers for controlled reaction environments.

• Stable 3D vibration movement: The 7° three-dimensional swinging mode provides omnidirectional mixing performance and helps prevent uneven concentration distribution during sample conditioning.

• Adjustable low-speed operation: Stepless speed regulation from 0 to 80 rpm enables gentle agitation control for mineral suspensions, solution mixing and heat-sensitive laboratory samples.

• Reliable sample fixing system: Aluminum alloy shelves with anti-slip silicone padding provide stable support, while elastic fixing racks adapt to centrifuge tubes, flasks, beakers and different sample vessels.

• Flexible laboratory compatibility: Optional clamp configurations and rack structures support different container sizes and batch testing requirements.

• Global power compatibility: Universal 110V–240V wide voltage design ensures stable operation in international mining laboratories and containerized mobile laboratories.

Specification

Parameter Item	Technical Index
Vibration Mode	3D Swing with 7° oscillation angle
Speed Range	0–80 rpm, stepless adjustable
External Dimension	240 × 210 mm
Input Voltage	110V–240V universal wide voltage
Internal Structure	Aluminum alloy shelf + anti-slip silicone pad
Fixing Method	Elastic universal fixing rack
Core Advantage	Incubator mountable, heavy-load bearing, multi-container compatibility

Other Specification for Option

Various customized clamp fixtures and upgraded rack structures are available to match different experimental containers and batch capacities. Multiple shaker models with different amplitude and speed ranges can be customized upon request.

Why Choose FKN PANDA

FKN PANDA Laboratory Orbital Shaker provides reliable testing consistency through stable 3D vibration movement and adjustable speed control. Uniform sample mixing reduces stratification and maintains consistent solution conditions for mineral wet chemistry testing and laboratory analysis.

The equipment offers excellent operational reliability with a robust aluminum alloy shelf, elastic fixing structure and anti-slip design. These features support long-cycle low-speed oscillation while reducing sample displacement during continuous laboratory operation.

It improves laboratory workflow efficiency through compact installation and multi-container compatibility. The incubator-compatible design saves laboratory bench space, while flexible fixtures support different sample vessels and batch testing requirements.

Designed for mining and hydrometallurgical laboratories, the shaker matches mineral suspension homogenization, wet chemical reaction preparation and controlled laboratory incubation procedures. Its gentle vibration mode supports standardized sample handling from laboratory evaluation to process research.

The compact multi-functional structure reduces unnecessary equipment investment, while durable mechanical components and universal voltage compatibility provide long-term operational value for global mining laboratories.

Laboratory Shaker – FAQ

Q1. How to select a laboratory shaker for leaching test sample agitation in hydrometallurgical research?

Selecting a laboratory shaker for mining applications requires evaluating the test purpose, sample characteristics, vessel configuration, and required agitation conditions. In hydrometallurgical research, laboratory shakers are commonly used for leaching tests, extraction studies, and sample conditioning where controlled agitation is required. Key selection factors include motion type, speed control, platform capacity, and compatibility with laboratory vessels. For new laboratory setups, expansion projects, or equipment replacement, the shaker should be matched with the complete workflow from sample preparation and mineral testing to metallurgical evaluation and process decision-making.

Q2. Which oscillation type is suitable for different ore leaching and extraction workflows?

The appropriate oscillation type depends on the experimental objective, sample properties, and mixing requirements. Orbital motion is commonly considered for general solution mixing and extraction studies, while reciprocal or linear motion may be selected for applications requiring directional movement or specific agitation patterns. In mining laboratories, the selected motion should provide sufficient sample contact and mixing consistency during leaching, dissolution, or solvent extraction tests. Understanding the relationship between shaker movement and test methodology helps laboratories establish reliable experimental conditions for mineral processing research.

Q3. What factors should be considered when specifying shaker capacity and platform size for multi-sample batch testing?

Laboratory shaker capacity should be evaluated according to the number of samples, vessel sizes, total load, and expected testing frequency. Mining laboratories often perform parallel leaching experiments or comparative metallurgical tests requiring stable operation with multiple vessels. Platform dimensions, clamp compatibility, and load distribution are important factors that influence operational stability and mixing consistency. Selecting a suitable configuration helps laboratories improve workflow organization and support continuous testing requirements during exploration studies, process optimization, and mineral evaluation programs.

Q4. How does laboratory shaker design affect mixing uniformity in leaching and solvent extraction tests?

Laboratory shaker design influences mixing performance through factors such as motion accuracy, drive mechanism stability, platform structure, and vessel fixation. In hydrometallurgical testing, uniform agitation helps maintain consistent contact between samples and solutions during leaching or extraction experiments. Proper vessel securing and balanced loading are important for reducing operational variation between test batches. When selecting equipment, laboratories should consider how the shaker design supports repeatable mixing conditions throughout sample preparation, metallurgical testing, and process evaluation workflows.

Q5. Can laboratory shakers be used for long-duration agitated leaching tests?

Laboratory shakers can be applied in long-duration leaching studies when the equipment configuration matches the required operating conditions. Hydrometallurgical research may involve extended agitation periods for evaluating mineral dissolution behavior, extraction efficiency, or reaction characteristics. Before continuous operation, laboratories should consider factors such as mechanical stability, load capacity, vessel compatibility, and maintenance requirements. Proper equipment selection and operating procedures help ensure reliable performance during prolonged metallurgical experiments and support consistent laboratory research activities.

Q6. How to integrate laboratory shakers into a complete leaching test and solvent extraction workflow?

Laboratory shakers are typically integrated into the experimental stages following sample preparation and reagent preparation, supporting controlled agitation during leaching, extraction, and conditioning tests. In a mining laboratory workflow, prepared ore samples are tested through mineral characterization and metallurgical evaluation before process decisions are made. Effective integration requires matching shaker parameters with test methods, sample containers, and laboratory documentation practices. A properly configured shaker system can support repeatable experimental procedures during exploration, process development, and laboratory expansion projects.

Q7. Which parameters most influence reproducibility and mixing efficiency in shaker-based leaching experiments?

Mixing reproducibility in shaker-based leaching experiments is influenced by parameters including motion type, shaking speed, amplitude, sample volume, vessel geometry, loading balance, and test duration. Consistent control of these conditions is important when comparing metallurgical results from different batches or evaluating process variables. Mining laboratories should establish operating procedures that match the specific ore characteristics and experimental objectives. Proper parameter selection supports reliable data generation during hydrometallurgical studies and mineral processing research.

Q8. What maintenance is required for long-term operation of laboratory shakers in mining laboratories?

Routine maintenance of laboratory shakers generally includes inspection of the drive mechanism, platform components, clamps, controls, and moving parts according to manufacturer recommendations. Mining laboratory environments may involve frequent sample testing, chemical exposure, and continuous operation, making equipment condition monitoring important. Regular cleaning and inspection also help reduce contamination risks between different ore samples or test solutions. Proper maintenance practices contribute to stable operation during long-term leaching studies, metallurgical experiments, and laboratory workflow activities.

Q9. What safety features should be considered when using laboratory shakers with corrosive or hazardous solutions?

Safety considerations for laboratory shakers used in mining applications include secure vessel fixation, stable loading, appropriate material compatibility, and safe operating procedures for chemical solutions. Hydrometallurgical laboratories may handle corrosive reagents or specialized test solutions requiring careful equipment selection. Features such as overload protection, secure platforms, and suitable containment practices can help reduce operational risks. Laboratories should evaluate safety requirements according to their testing environment and chemical handling procedures to support reliable laboratory operation.

Q10. How to correlate shaker mixing parameters with leaching kinetics and metal extraction results?

Shaker operating parameters can influence the conditions under which leaching reactions occur, making them an important consideration when evaluating metallurgical results. Factors such as agitation mode, speed, sample loading, and mixing duration may affect solution contact and reaction behavior. To establish meaningful correlations, laboratories should maintain controlled experimental conditions and compare results using consistent testing procedures. Proper shaker selection and operation help provide reliable support for leaching studies, process optimization, and mineral processing decision-making.

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