Category
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Order Code |
Product Name |
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L-02-05-M02 |
Laboratory Water Distiller for Mining Sample Preparation and Mineral Testing |
This Laboratory Water Distiller is a high-efficiency laboratory water purification device designed to produce standard distilled water for routine wet chemistry operations in mining, metallurgical and environmental laboratories. Using reliable electric heating distillation technology, it removes impurities, sediments and soluble ions from raw water to provide qualified distilled water for mineral sample pretreatment and analytical testing.
Available in 5L/h, 10L/h and 20L/h production capacity models, this series meets different laboratory water consumption requirements from small-scale research applications to high-volume mineral testing workflows. Powered by standard 220V 50Hz electricity, the compact and lightweight structure enables flexible installation on laboratory workbenches and suitable laboratory areas.
The Laboratory Water Distiller is suitable for mining laboratory procedures including mineral sample preparation, metallurgical testing, mineral analysis and hydrometallurgical applications.
The distilled water produced by this equipment is used for ore powder rinsing, reagent dilution, solution constant volume preparation and residue cleaning. Purified water helps reduce background ion interference from untreated water sources and supports cleaner pretreatment conditions before analytical testing.
Distilled water is required for preparing calibration solutions, buffer liquids and blank control samples in mineral testing procedures. Stable water quality helps maintain consistent laboratory conditions for ore grade detection, trace element testing and comparative mineral analysis experiments.
This equipment provides distilled water for leaching solution preparation, precipitation reaction dilution and laboratory equipment cleaning during hydrometallurgical experiments. Consistent water quality supports reliable laboratory evaluation of metal processing tests.
Multiple Capacity Options: Production capacities from 5L/h to 20L/h support different laboratory water requirements, covering small research laboratories and larger mining testing facilities.
Stable Electric Heating Distillation: Reliable heating and distillation structure ensures continuous operation with stable water output and consistent distilled water quality.
Standard Laboratory Power Compatibility: The 220V 50Hz electrical design supports convenient installation in international laboratory environments.
Compact Laboratory Design: Lightweight and space-saving construction allows flexible placement and convenient daily maintenance in mining laboratory layouts.
Reliable Water Purification Performance: Industrial-grade distillation technology removes particulate impurities and common soluble ions, providing suitable distilled water for general mineral wet experiments.
Capacity-Matched Operation: Different power configurations correspond to different production capacities, allowing laboratories to select suitable models according to actual water demand.
| Model | Production Capacity | Power | Voltage | Dimension | Weight |
|---|---|---|---|---|---|
| Standard Model | 5 L/h | 4.5 KW | 220V 50HZ | 320×200×680 mm | 7 kg |
| FKN-ZJ-362 | 10 L/h | 7.5 KW | 220V 50HZ | / | / |
| FKN-ZJ-363 | 20 L/h | 13.5 KW | 220V 50HZ | / | / |
No additional optional accessories are provided. Users can select suitable models according to daily laboratory distilled water consumption and batch testing scale.
Reliable Testing Performance: FKN PANDA Laboratory Water Distiller provides consistent distilled water quality for reagent preparation and sample cleaning, helping reduce impurity interference and maintain repeatable mineral analysis and hydrometallurgical testing results.
Operational Reliability: The mature electric heating and distillation structure supports long-term laboratory operation with stable power output and reliable daily performance for mining laboratory applications.
Improved Laboratory Workflow Efficiency: Multiple capacity options help laboratories match water production capability with actual testing requirements, reducing water supply limitations during continuous sample preparation procedures.
Mining Laboratory Compatibility: The produced distilled water supports ore digestion preparation, solution dilution, wet chemistry testing and hydrometallurgical experimental procedures, integrating into standard laboratory workflows.
Cost-Effective Laboratory Solution: Flexible capacity selection allows laboratories to choose suitable models according to operational needs, while durable construction helps reduce long-term maintenance requirements.
Q1. How to select a laboratory water distiller for reagent preparation in hydrometallurgical testing workflows?
Selecting a laboratory water distiller for mining applications requires consideration of water demand, required purity level, testing methods, and laboratory operating conditions. In hydrometallurgical and mineral testing workflows, purified water is commonly used for reagent preparation, sample digestion, calibration solutions, and analytical procedures. The selected system should match the laboratory workload, contamination control requirements, and downstream analysis needs. Proper selection helps laboratories maintain consistent water quality throughout the workflow from sample preparation and mineral testing to metallurgical evaluation and process decision-making.
Q2. Which water purity specifications are required for ICP-MS and trace metal analysis in mining laboratories?
Water purity requirements depend on the analytical method, detection limits, and contamination control standards used by the laboratory. For ICP-MS and trace element analysis, laboratories typically require highly purified water to minimize background interference from trace contaminants. When selecting a water distiller, mining laboratories should evaluate output quality, monitoring methods, storage conditions, and compatibility with analytical procedures. Matching water quality requirements with testing applications helps support reliable results in geochemical analysis, ore characterization, and metallurgical research workflows.
Q3. What factors should be considered when specifying distillation capacity for high-throughput mining assay laboratories?
Distillation capacity should be selected according to daily water consumption, number of analytical procedures, sample preparation volume, and laboratory operating schedule. High-throughput mining assay laboratories may require stable purified water availability for digestion, reagent preparation, and routine analytical testing. Capacity planning should also consider storage requirements and future laboratory expansion. A properly sized water distillation system helps maintain continuous laboratory operation while reducing interruptions caused by insufficient purified water supply during intensive testing campaigns.
Q4. How does water distiller design affect trace metal contamination levels in ultra-pure water for metallurgical testing?
Water distiller design influences contamination control through material selection, heating system configuration, condenser structure, and storage conditions. In metallurgical laboratories performing trace analysis, contact materials and system cleanliness are important factors affecting final water quality. A suitable design helps reduce the risk of introducing unwanted impurities during purification. Laboratories should evaluate construction materials, maintenance procedures, and monitoring practices to ensure the produced water meets the requirements of mineral testing and analytical sample preparation workflows.
Q5. How to integrate water distillers into a complete ultra-clean sample preparation workflow for exploration geochemistry?
Laboratory water distillers can be integrated into ultra-clean sample preparation workflows as a supporting system for reagent preparation, blank solutions, and analytical procedures. In exploration geochemistry, purified water is an important component in maintaining controlled conditions during sample digestion and trace element analysis. Integration should consider laboratory layout, storage practices, contamination prevention, and compatibility with analytical instruments. Proper implementation supports consistent workflow management from sample preparation through mineral analysis and technical evaluation.
Q6. Which parameters most influence water quality in laboratory distiller outputs for ICP-MS applications?
Water quality from laboratory distillation systems is influenced by factors including source water quality, equipment materials, distillation process conditions, storage environment, and maintenance practices. For ICP-MS applications, laboratories should monitor relevant quality indicators according to their analytical requirements. Consistent equipment operation and proper cleaning procedures help reduce contamination risks. Evaluating these parameters allows mining laboratories to maintain suitable water quality for trace element analysis, calibration preparation, and high-precision mineral testing workflows.
Q7. What maintenance schedule is critical for heating elements, condenser coils, and storage tanks in high-use water distillers?
Regular maintenance is essential for maintaining stable water purification performance during continuous laboratory operation. Important inspection areas include heating elements, condenser components, storage tanks, and internal surfaces that may accumulate deposits or contaminants over time. Maintenance frequency depends on source water characteristics, operating hours, and laboratory usage conditions. For mining laboratories with frequent analytical testing requirements, preventive maintenance helps protect equipment reliability and supports consistent purified water production for sample preparation and metallurgical analysis.
Q8. Can laboratory water distillers handle high-throughput water purification for multi-element ore analysis campaigns?
Laboratory water distillers can support high-throughput analytical workflows when the selected capacity and operating configuration match laboratory requirements. Multi-element ore analysis campaigns often require continuous availability of purified water for digestion, dilution, reagent preparation, and quality control procedures. Laboratories should evaluate production capacity, storage arrangements, and maintenance requirements when planning for intensive testing schedules. Proper system selection supports reliable laboratory operation during exploration programs, production monitoring, and expanded analytical workloads.
Q9. How to determine optimal distiller capacity and storage volume for different water consumption rates in mining laboratories?
Determining suitable distiller capacity and storage volume requires evaluating daily water consumption, analytical workload, peak usage periods, and laboratory operating patterns. Mining laboratories should consider the requirements of sample digestion, mineral testing, reagent preparation, and cleaning procedures when estimating demand. A balanced configuration helps ensure sufficient purified water availability without unnecessary operational complexity. Proper planning also supports future laboratory expansion and continuous testing operations as analytical requirements increase.
Q10. What are the key selection criteria when choosing between distillation, reverse osmosis, and deionization for mining laboratory water purification?
The choice between distillation, reverse osmosis, and deionization depends on required water quality, analytical application, operating conditions, and laboratory workflow. Distillation systems are commonly evaluated for applications requiring controlled purification through vaporization and condensation, while other technologies may be suitable for different water treatment requirements. Mining laboratories should assess testing methods, contamination control needs, maintenance considerations, and long-term operating plans before selecting a purification approach for mineral analysis and metallurgical testing applications.
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