Order Code	Product Name
L-01-14-M02	Indoor Pulse Dust Collector for Mining Laboratory Sample Preparation

Indoor Pulse Dust Collector for Mining Laboratory Sample Preparation

Brief Introduction

The FKN PANDA Indoor Pulse Dust Collector is a heavy-duty negative-pressure dust removal system designed for mineral sample preparation workshops, ore crushing stations, and pilot hydrometallurgical production areas. It captures fine mineral dust generated during ore grinding, splitting, pellet pressing, and solid-liquid pretreatment processes to maintain cleaner laboratory and production environments.

The standard configuration adopts a 6-cartridge filter layout with a 90㎡ total filtration area, combined with a high-power centrifugal fan to provide stable airflow and wind pressure for continuous operation. A complete model range including mobile units, container-mounted versions, and large-capacity dust collectors enables flexible matching with different mining laboratory and pilot processing scales.

Application Scope

This Indoor Pulse Dust Collector integrates with key mining laboratory workflows including mineral sample preparation, metallurgical testing, mineral analysis, and pilot hydrometallurgical processing.

During sample preparation, the system connects with jaw crushers, pulverizers, and ring grinders to capture fine ore dust generated during mineral pretreatment. Stable negative pressure airflow helps prevent dust mixing between different ore batches and supports consistent sample quality for subsequent testing.

In metallurgical testing and mineral analysis areas, the equipment removes residual heavy metal and silicate dust from sample splitting and pellet preparation zones. Cleaner laboratory conditions help protect precision analytical instruments and reduce dust-related maintenance requirements.

For hydrometallurgical applications, the collector handles dust generated during ore leaching raw material preparation, solid residue drying, and filter cake crushing processes. Different model options support laboratory stations, containerized pilot systems, and medium-scale wet metallurgy workshops.

Features

• Large filtration area with standard filter cartridges provides effective capture of submicron mineral dust, heavy metal particles, and silicate powder during continuous operation.

• High-power centrifugal fan configuration delivers stable airflow and wind pressure for dust extraction from multiple ore processing equipment.

• Balanced fan rotation structure provides stable suction performance while reducing vibration and noise during long-duration laboratory and pilot workshop operation.

• Modular filter cartridge design allows independent cartridge replacement and simplifies routine cleaning and maintenance without complete equipment shutdown.

• Complete model series includes mobile small units, container-mounted dust collectors, and large-capacity industrial specifications for different airflow requirements.

• Integral metal frame structure provides strong load-bearing capability and long service life for high-frequency operation in mineral processing environments.

Specification

Standard Main Model

Parameter Item	Technical Parameter
Rated Power	7.5 kW
Operating Voltage	380 V
Wind Pressure	2600 Pa
Airflow Volume	11000 m³/h
Fan Rotation Speed	2900 r/min
Total Filtration Area	90 ㎡
Filter Cartridge Quantity	6 pcs
Single Cartridge Dimension	Φ325×660 mm
Overall Dimension (L×W×H)	2383×1020×2510 mm
Approx. Net Weight	2000 kg

Optional Full Model Series

Model Type	Power	Voltage	Wind Pressure	Airflow	Rotation Speed	Filtration Area	Cartridge Qty	Cartridge Size	Overall Size	Weight
Mobile Small Unit	2.2 kW	220 V	1500 Pa	3500 m³/h	2900 r/min	10 ㎡	1 pc	350×495 mm	660×660×1350 mm	300 kg
Container Dedicated	5.5 kW	380 V	2100 Pa	7500 m³/h	2900 r/min	60 ㎡	4 pcs	325×605 mm	1020×1440×2200 mm	1000 kg
Mid-Size 7.5kW	7.5 kW	380 V	2554 Pa	10650 m³/h	2900 r/min	90 ㎡	6 pcs	350×660 mm	2496×1110×3196 mm	1200 kg
11kW Industrial	11 kW	380 V	3145 Pa	15600 m³/h	2930 r/min	135 ㎡	9 pcs	350×660 mm	2653×1620×2855 mm	1600 kg
22kW Heavy-Duty	22 kW	380 V	4300 Pa	23000 m³/h	2930 r/min	180 ㎡	12 pcs	350×660 mm	4376×1285×3250 mm	3000 kg
30kW Large Flow	30 kW	380 V	4800 Pa	26000 m³/h	2930 r/min	180 ㎡	12 pcs	350×660 mm	4376×1285×3250 mm	3000 kg
37kW Super Large	37 kW	380 V	2554 Pa	48900 m³/h	1250 r/min	270 ㎡	24 pcs	350×660 mm	5680×5200×3700 mm	7100 kg

Other Specification for Option

Optional configurations include custom air duct connecting flanges, multi-equipment linkage control cabinets, and automatic pulse cleaning timing modules. Mobile units can be equipped with silent casters for flexible station movement, while container-mounted models support customized dimensions for mineral processing container applications.

Why Choose FKN PANDA

The FKN PANDA Indoor Pulse Dust Collector supports reliable mineral testing conditions by efficiently capturing floating mineral dust and reducing cross-contamination risks between different ore samples. Cleaner working environments help maintain stable repeatability for mineral analysis and metallurgical testing procedures.

The system provides dependable operational performance through stable airflow, durable filter cartridge structures, and a robust metal frame design suitable for continuous mineral pretreatment environments.

Laboratory productivity is improved through scalable model selection, modular cartridge replacement, and compatibility with crushing, grinding, and sample preparation equipment. Maintenance downtime can be reduced through simplified service procedures.

Designed for ore crushing, grinding, and hydrometallurgical raw material preparation, this dust removal system integrates with mining laboratories, pilot processing facilities, and mineral testing workflows.

With multiple capacity options, durable components, and adaptable installation configurations, the FKN PANDA Indoor Pulse Dust Collector provides scalable dust control solutions for mining laboratories, pilot plants, and mineral processing facilities.

Product Name – FAQ

Q1. How to select a pulse jet dust collector for mineral processing plant dust control applications?

Selecting a pulse jet dust collector for mining and mineral processing applications requires evaluation of dust characteristics, air volume requirements, operating conditions, and the specific dust generation points. Key considerations include particle size distribution, dust concentration, moisture content, abrasiveness, and whether the system will serve crushing, grinding, screening, or material transfer processes. For a new laboratory or plant expansion project, the collector should be matched with the complete ventilation workflow to maintain effective dust capture and stable operation. Proper equipment selection helps support safer working conditions, protect downstream equipment, and maintain reliable sample preparation or mineral processing activities.

Q2. Which filter media are optimal for pulse cleaning in high-dust loading ore crushing operations?

Filter media selection depends on the mineral characteristics and operating environment. In ore crushing and sample preparation applications, factors such as dust abrasiveness, particle size, temperature, humidity, and chemical composition should be considered. Suitable filter media should provide effective dust retention while allowing efficient pulse jet cleaning to reduce pressure buildup during continuous operation. For mining applications involving fine mineral dust, silica-containing materials, or high dust loading conditions, selecting appropriate filter materials helps maintain airflow stability and extend service intervals. The final configuration should be based on the specific process requirements and operating conditions of the dust collection system.

Q3. How does pulse pressure and timing affect filter cleaning efficiency in continuous dust collection?

Pulse pressure and cleaning timing directly influence the ability of a pulse jet dust collector to remove accumulated dust from filter surfaces. Properly controlled cleaning cycles help maintain balanced pressure drop and stable airflow during continuous operation. Excessive cleaning intensity may increase filter wear, while insufficient cleaning can lead to dust buildup and reduced collection efficiency. In mining and mineral processing environments, pulse parameters should be adjusted according to dust loading characteristics, production conditions, and filter performance monitoring. Optimized cleaning control supports continuous operation and helps reduce unnecessary maintenance caused by unstable airflow or premature filter replacement.

Q4. How to integrate a pulse jet dust collector into a complete mineral processing ventilation system?

A pulse jet dust collector should be considered as part of the overall ventilation and dust control workflow rather than as an isolated unit. Integration requires coordination with dust generation points, extraction hoods, ductwork layout, fans, and discharge arrangements. In mineral processing applications, effective dust control often begins at crushing, grinding, screening, and material transfer locations where airborne particles are generated. A properly configured system supports cleaner working environments and helps protect laboratory technicians, operators, and process equipment. During laboratory expansion or equipment replacement, the dust collector should be evaluated together with existing ventilation conditions and operational requirements.

Q5. What factors should be considered when specifying a pulse jet dust collector for fine mineral dust?

Fine mineral dust requires careful consideration of filtration performance, airflow capacity, dust characteristics, and system operating stability. Important factors include particle size, dust concentration, moisture level, material abrasiveness, filter configuration, and cleaning method. In mining laboratories and processing facilities, fine particles generated during crushing, grinding, and sample preparation can affect both equipment reliability and workplace conditions if not properly controlled. The selected pulse jet dust collector should provide consistent dust capture while maintaining manageable maintenance requirements. A complete assessment of the application environment helps ensure the system matches the laboratory or processing workflow.

Q6. What maintenance is required for long-term operation of pulse jet dust collectors?

Regular maintenance is essential for maintaining reliable performance in continuous mining and mineral processing applications. Typical inspection areas include filter elements, pulse valves, compressed air supply components, differential pressure monitoring devices, and dust discharge mechanisms. Operators should monitor changes in pressure drop, airflow performance, and cleaning frequency to identify potential issues before they affect operation. Maintenance schedules should be developed according to actual dust conditions, operating hours, and environmental factors. Proper maintenance management helps reduce unexpected downtime, supports stable dust control, and improves the service life of the overall collection system.

Q7. How does differential pressure monitoring improve pulse jet dust collector performance?

Differential pressure monitoring provides important information about filter loading conditions and system operating status. By tracking pressure changes across the filter elements, operators can evaluate whether cleaning cycles are effective and identify abnormal conditions such as excessive dust buildup, filter damage, or airflow restrictions. In mining applications with variable dust generation, monitoring data helps optimize cleaning frequency and supports preventive maintenance decisions. This approach allows laboratories and processing facilities to maintain consistent ventilation performance while reducing unnecessary filter cleaning or replacement. Reliable monitoring is an important part of continuous dust collection system management.

Q8. Can pulse jet dust collectors handle dust generated from crushing and grinding operations?

Pulse jet dust collectors are commonly applied in mineral processing environments where crushing and grinding operations generate airborne dust. Their suitability depends on the dust properties, including particle size, concentration, moisture content, and abrasiveness. For mining laboratory sample preparation areas and processing facilities, dust control requirements should be evaluated based on the specific operation, such as crushing, pulverizing, or material handling. Proper selection of filtration components and system configuration helps maintain effective dust capture during repeated processing cycles. Application assessment is necessary to ensure compatibility with the intended workflow and operating conditions.

Q9. What safety considerations are important when using pulse jet dust collectors in mining applications?

Safety considerations for pulse jet dust collectors include understanding the characteristics of the collected dust, evaluating potential hazards, and selecting appropriate system configurations. Some mineral dusts may require additional considerations related to combustibility, chemical properties, or occupational exposure limits. Proper installation, regular inspection, and suitable maintenance procedures are important for safe operation. In mining laboratories and processing facilities, dust collection systems should support the overall safety management approach by controlling airborne particles generated during sample preparation and material handling. Specific safety requirements should always be evaluated according to the application environment and applicable regulations.

Q10. How can a pulse jet dust collector support continuous mining laboratory and mineral processing operations?

A pulse jet dust collector supports continuous operation by maintaining effective dust capture during repeated sample preparation and mineral processing activities. In mining laboratories, where crushing, grinding, and handling operations are part of the testing workflow, stable dust control helps protect operators and maintain cleaner working conditions. In larger processing environments, reliable dust collection contributes to consistent production conditions and equipment protection. When selecting or upgrading a system, factors such as operating hours, dust generation patterns, maintenance requirements, and future expansion plans should be considered. A properly matched dust collection system becomes an important component of long-term laboratory and processing reliability.

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