Category
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Order Code |
Product Name |
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L-02-06-M03 |
Laboratory Conductivity Meter for Mining and Hydrometallurgical Testing |
This high-precision Laboratory Conductivity Meter is a multi-parameter analytical instrument designed for liquid quality monitoring in mining, mineral processing and hydrometallurgical laboratories. It integrates conductivity, resistivity, TDS, salinity, ash content and temperature measurement functions to evaluate ore leachate, process water, reagent solutions and experimental wastewater.
Equipped with a 7-inch HD color touch screen, bilingual operation system and intelligent measurement functions, the instrument provides stable and repeatable liquid property analysis. Automatic range switching, temperature compensation modes and solution identification functions improve testing consistency across different laboratory environments.
Supporting GLP and GMP compliant data management functions, the conductivity meter provides data storage, traceability and transmission capabilities through RS-232 and USB interfaces. With IP54 protection grade and firmware upgrade capability, it is suitable for long-term operation in global mining and metallurgical laboratories.
This Laboratory Conductivity Meter is designed for standardized mining laboratory workflows, including mineral sample preparation, metallurgical testing, mineral analysis and hydrometallurgical process monitoring.
The instrument monitors conductivity and TDS values of purified water, diluted acid reagents and mineral suspension solutions. Accurate liquid quality measurement helps reduce impurity interference during ore digestion and dilution procedures, supporting reliable sample pretreatment conditions.
The meter measures conductivity, resistivity, salinity and ash content of mineral process solutions. Multi-parameter detection supports solution evaluation, quality comparison and laboratory analysis workflows requiring consistent and repeatable testing data.
In hydrometallurgical experiments, the equipment is applied for monitoring leaching solutions, extraction liquids and circulating process water. Temperature compensation and multiple compensation modes support evaluation of solution conditions during wet metallurgy testing procedures.
7-inch HD color touch screen with Chinese and English bilingual switching provides clear data display and convenient operation for global laboratory users.
Supports multiple reference temperature settings and dual temperature units (℃/°F), adapting to different laboratory testing requirements.
Automatic endpoint judgment, multi-mode reading options and 1–5 point calibration with standard solution identification reduce manual operation errors during testing.
Multiple compensation modes including linear, nonlinear and pure water compensation support conductivity measurement of different mineral solutions and liquid systems.
Professional management functions include method configuration, electrode management and three-level user authority control for standardized laboratory operation.
GLP and GMP compliant data management supports storage of up to 1000 sets of experimental data with operation records, statistics and traceability functions.
RS-232 and USB interfaces support offline printing, PC data transmission, U-disk reading and scanner connection for improved laboratory data management efficiency.
IP54 protection grade, power-off protection, automatic shutdown and factory reset functions enhance equipment stability during continuous laboratory operation.
Firmware upgrade capability and automatic sampler connection support future functional expansion and batch testing requirements.
Standard accessories including composite conductivity electrode, electrode holder, dust cover and calibration solution support immediate laboratory deployment.
| Parameter Item | Technical Index |
|---|---|
| Instrument Grade | 0.5 level |
| Measurable Parameters | Conductivity, Resistivity, TDS, Salinity, Ash content, Temperature |
| Conductivity Range | 0.000μS/cm～2000mS/cm |
| Conductivity Resolution | 0.001μS/cm (auto-switching) |
| Conductivity Error | ±0.5% FS |
| Resistivity Range | 5.00Ω.cm～100.0MΩ.cm |
| Resistivity Resolution | 0.01Ω·cm (auto-switching) |
| Resistivity Error | ±0.5% FS |
| TDS Range | 0.000 mg/L～1000g/L |
| TDS Resolution | 0.001mg/L (auto-switching) |
| TDS Error | ±0.5% FS |
| Salinity Range | 0.00～8.00% |
| Salinity Resolution | 0.01% |
| Salinity Error | ±0.1% |
| Temperature Range | -10.0～135.0℃ / 14.0～275.0℉ |
| Temperature Resolution | 0.1℃ / 0.1℉ |
| Temperature Error | ±0.1℃ |
| Reference Temperature | 5.0℃ / 10.0℃ / 15.0℃ / 18.0℃ / 20.0℃ / 25.0℃ (default 25℃) |
| Data Storage | 1000 sets |
| Protection Level | IP54 |
| Power Supply | AC 100~240V input, DC 24V output |
| Dimension | 220 × 195 × 68 mm |
| Weight | 0.95 kg |
Multiple matching electrode models and customized functional modules are available to meet different testing ranges and experimental requirements. Custom parameter settings and professional supporting testing solutions can be provided according to laboratory application needs.
FKN PANDA Laboratory Conductivity Meter provides reliable testing accuracy through multi-point calibration, automatic temperature compensation and adaptive measurement range switching. These functions help maintain stable and repeatable liquid property data for mineral solution analysis and hydrometallurgical laboratory evaluation.
The instrument delivers operational reliability with IP54 protection structure, stable measurement algorithms and professional electrode management functions. It is suitable for continuous operation in demanding wet laboratory environments.
The integrated multi-parameter design improves laboratory efficiency by combining conductivity, resistivity, TDS, salinity, ash content and temperature measurement within one analytical platform, reducing repeated equipment setup during routine testing.
With broad measurement capability and diversified compensation modes, the meter matches mineral sample preparation, metallurgical testing and hydrometallurgical solution monitoring workflows used in modern mining laboratories.
The multifunctional design reduces procurement requirements compared with separate single-parameter instruments. Firmware upgrade capability and durable structural design help reduce long-term maintenance and replacement costs.
Q1. How to select a conductivity meter for solution chemistry monitoring in hydrometallurgical laboratory workflows?
Selecting a conductivity meter for mining laboratory applications requires consideration of the solution type, expected conductivity range, measurement environment, and testing objectives. In hydrometallurgical workflows, conductivity measurements can support solution chemistry evaluation during leaching tests, reagent preparation, and process monitoring. The appropriate meter configuration should match the laboratory requirements for accuracy, temperature compensation, electrode design, and data recording needs. For new laboratory setups or equipment replacement projects, laboratories should evaluate how the conductivity meter fits into the complete workflow from sample preparation and mineral testing to metallurgical evaluation and process decision-making.
Q2. What factors should be considered when choosing a conductivity meter for mining laboratory applications?
Key factors include measurement range, accuracy requirements, conductivity cell selection, chemical compatibility, temperature compensation capability, and operational conditions. Mining laboratories often analyze solutions containing different ionic compositions from leaching, flotation, or mineral processing tests, so the instrument should be suitable for the specific sample characteristics. Selection should also consider routine maintenance requirements, calibration procedures, and compatibility with existing laboratory practices. A properly specified conductivity meter helps laboratory technicians obtain consistent solution data for metallurgical testing and supports reliable interpretation of process behavior.
Q3. How does conductivity measurement support hydrometallurgical testing and mineral processing evaluation?
Conductivity measurement provides information about the ionic characteristics of laboratory solutions and can assist in monitoring changes during metallurgical experiments. In hydrometallurgical workflows, conductivity meters may be used during reagent preparation, leaching studies, solution monitoring, and process comparison tests. Combined with other analytical methods, conductivity data helps engineers evaluate solution conditions and understand process variations. The measurement results can support decisions related to experimental adjustments, process optimization studies, and laboratory-scale evaluation before further technical development.
Q4. How does conductivity cell design affect measurement accuracy in mining solution analysis?
Conductivity cell design influences measurement stability, response behavior, and suitability for different solution conditions. Factors such as cell geometry, electrode material, and cell constant selection should match the conductivity range and chemical characteristics of the samples being tested. Mining laboratories may encounter solutions with high ionic strength, corrosive components, or complex compositions, requiring appropriate sensor selection. Proper conductivity cell configuration helps reduce measurement uncertainty and supports repeatable results during mineral processing experiments, leaching tests, and metallurgical solution analysis.
Q5. How important is temperature compensation for conductivity measurements in mining laboratories?
Temperature compensation is an important consideration because solution conductivity can change with temperature variations. During laboratory testing, especially in hydrometallurgical experiments, temperature differences may influence measurement results and data interpretation. Conductivity meters equipped with suitable temperature compensation functions help laboratories maintain more consistent measurements under changing operating conditions. When selecting equipment, laboratory managers should consider the expected temperature range of their applications and ensure that measurement procedures include appropriate calibration and verification practices.
Q6. How should conductivity meters be calibrated for reliable performance in metallurgical testing?
Regular calibration is necessary to maintain measurement reliability and confirm instrument performance. Conductivity meters are commonly calibrated using appropriate reference standards according to the measurement range and laboratory procedures. In mining laboratories, calibration frequency should be determined by testing volume, sample characteristics, and quality control requirements. Proper electrode cleaning, standard solution handling, and verification records are important parts of maintaining consistent analytical performance. These practices support reliable conductivity data for leaching studies, solution monitoring, and metallurgical evaluation workflows.
Q7. Can conductivity meters be integrated into complete mining laboratory monitoring workflows?
Yes, conductivity meters can be incorporated into laboratory workflows that require solution chemistry monitoring. In mining and metallurgical laboratories, conductivity measurement can complement other analytical equipment used for evaluating ore processing behavior, reagent conditions, and leaching performance. Integration depends on laboratory requirements, including data recording methods, measurement frequency, and compatibility with existing testing procedures. For laboratory expansion or process development projects, conductivity monitoring can provide additional information for understanding solution changes throughout mineral testing and metallurgical evaluation stages.
Q8. What maintenance is required for conductivity meters during continuous laboratory operation?
Routine maintenance typically includes conductivity cell cleaning, inspection, calibration verification, and proper storage according to the instrument and sensor requirements. Mining laboratory samples may contain suspended solids, chemical residues, or other components that can affect sensor performance if not properly managed. Establishing a maintenance schedule helps reduce measurement drift and supports stable operation during continuous testing programs. Laboratory technicians should follow appropriate procedures for cleaning, checking sensor condition, and documenting maintenance activities to maintain reliable analytical workflows.
Q9. How to choose between benchtop and portable conductivity meters for mining applications?
The choice between benchtop and portable conductivity meters depends on the laboratory workflow, testing location, and operational requirements. Benchtop instruments are generally suitable for controlled laboratory environments where repeated measurements are performed during mineral testing and metallurgical experiments. Portable configurations may be more suitable for field sampling, site inspections, or applications requiring measurement flexibility. Mining organizations should evaluate whether testing is performed during sample analysis, process monitoring, or environmental evaluation to select the configuration that best supports their operational needs.
Q10. How can conductivity measurement accuracy be improved in mining laboratory operations?
Improving conductivity measurement accuracy requires proper instrument selection, suitable conductivity cell configuration, regular calibration, effective temperature compensation, and consistent sample handling procedures. In mining laboratories, solution composition can vary significantly between different experiments, so measurement methods should be matched with specific testing requirements. Maintaining clean sensors, verifying instrument performance, and applying standardized operating procedures help improve repeatability. Reliable conductivity data supports better understanding of solution chemistry during hydrometallurgical testing and contributes to more informed process evaluation decisions.
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