MeiTeng XRT (MDS®) sorters use a combination of X-ray, CCD image, UV light & fluorescence recognition, supported by deep learning algorithms to accurately identify and sort valuable ore from raw ore or waste rock——All without water.
XRT(MDS®) sorting system consists of several key modules: feeding, distributing, recognition, and execution, supported by auxiliary systems such as air supply, dust removal, power distribution, and centralized control. Using AI-powered recognition methods tailored to different mineral characteristics, we can provide adaptive sorting solutions. It accurately distinguishes between valuable concentrate and waste rock, and efficiently ejects waste via intelligent air jet nozzle system.
1.Feeding and Material Stabilization
Raw mineral is fed by a vibrating feeder and spread as a thin, even layer onto a fast-moving conveyor belt. This stable material flow ensures that each particle is clearly exposed and can be individually scanned and analyzed, providing the basis for accurate detection.
2. Identification and Analysis
As material passes through the detection zone, it is scanned by an advanced X-ray transmission system and CCD imaging (assisted by UV light or fluorescence). Each particle’s density, composition, and thickness are captured in real time. Proprietary big-data algorithms then classify concentrate and waste by generating an intelligent recognition model, ensuring high sorting accuracy.
3. Intelligent Sorting Execution
The classification results are instantly transmitted to the high-speed air ejection system, where fast-response, low-energy solenoid valves precisely control compressed-air jets to separate waste from valuable minerals. Tailored to different operational requirements, the XRT (MDS®) system delivers an advanced and efficient solution for mineral pre-sorting.
4. Integrated Auxiliary System
To ensure stable and reliable long-term operation, the XRT (MDS®) system integrates comprehensive auxiliary systems, including compressed air supply, dust collection, power distribution, and centralized control. Together, these systems provide a clean operating environment, reliable utility support, and a high level of automation, ensuring consistent performance and maximum operational efficiency.

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Mineral Pre-concentration
– Decrease the amount of the waste entering crushing, grinding, and flotation processes, significantly reducing downstream processing costs.
– Reduce tailings volume, lowers disposal costs, allows waste rock recycling, and extends the lifespan of tailing facilities.
– Minimize water usage and chemical consumption in the processing plant, further reducing operational expenses (OPEX).
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Improve Capacity & Upgrade existing plants
– Reduce waste rock before material entering the processing plant, boost plant capacity, and lower cost per ton without equipment upgrades or replacements.
– Reduces the volume of fine tailings generated per ton of product, easing pressure on tailings facilities and enabling safer, more sustainable tailings management.
– Particularly valuable for existing operations with limited storage capacity or challenges in expanding tailings dam capacity.
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Increase the value and recovery of low-grade ore
– Sensor-based sorting precisely recovers valuable minerals from waste based on differences in color, texture, and density
– Even at low concentrations, valuable materials can be detected and recovered with high accuracy, improving resource utilization
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Recover valuable minerals from waste rock and tailings
– Sensor-based sorting identifies and separates valuable particles from waste rock and tailings.
– Recovers valuable resources which may be overlooked by traditional bulk processing, reducing waste volume and improving economic value.
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Robustness Under Extreme Operation Conditionn
– Remote or Water-Scarce Regions: Dry processing eliminates water consumption, making it ideal for arid areas or sites with limited water resources.
– High-Altitude or Extreme Climates: Robust design ensures reliable operation in harsh environments with limited infrastructure.
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Alleviate environmental impacts
– Minimize chemical consumption and reduce the potential risk of soil and water pollution
– Decrease tailings generation, easing pressure on tailings storage facilities and improving operational safety
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Non-ferrous metal
Lead-Zinc, Copper, Tungsten, Bauxite, Vanadium, Antimony, Tin, Nickel, Molybdenum, Spodumene, etc.
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Ferrous metal
Iron, Manganese, Chrome etc.
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Non-metallic and chemical
Fluorite, Phosphate, Silica, Kaolinite, Oil Shale, etc.
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Environment-friendly and Eco-sustainable
Utilizes innovative technologies that eliminate water and chemical consumption, reducing the environmental and ecological impact of mining operations
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High Sorting Accuracy
Achieves significantly greater accuracy than traditional jigging and other wet-processing technologies.
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Efficiency Improvement
Delivers high processing capacity with a simple system setup, significantly boosting the overall productivity of the beneficiation process.
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Low Energy Consumption
Dry process with an optimized system design can reduce power usage significantly compared with the traditianal multi-stage crushing, grinding and flotation process technology.
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Flexible & Versatile Application Scenarios
Offers adaptable solutions for in-building, open-air, underground, and mobile or semi-mobile setups, suitable for a wide range of application environments.
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Low Operating & Maintenance Cost
Reduces OPEX through a streamlined layout, fewer machines, and easier maintenance procedures.
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High System Stability
Features a robust design that guarantees long-term, consistent operation.
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Compact Footprint
Occupies less space compared to conventional beneficiation systems.
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AI-Powered Control
Employs advanced recognition and big-data analytics to ensure stable and reliable performance.
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High Adaptability Across Mineral Types
Backed by over a decade of field experience, XRT & MDS® has accumulated vast datasets and algorithms, successfully applied to numerous mineral types and a broad spectrum of operating conditions.
| Series | Category | Feeding Size (mm) | Model |
Nominal Capacity (t/h) |
|---|---|---|---|---|
| Standard Series | Large Lump | 300-50 | XRT (IXS1608BP500)-12-300 | 140 |
| XRT (IXS1608BP500)-16-300 | 192 | |||
| XRT (IXS1608BP500)-20-300 | 243 | |||
| XRT (IXS1608BP500)-24-300 | 280 | |||
| XRT (IXS1608BP500)-32-300 | 384 | |||
| XRT (IXS1608BP500)-40-300 | 486 | |||
| Medium Lump | 100-25 | XRT (IXS1608BP500)-12-100 | 84 | |
| XRT (IXS1608BP500)-16-100 | 114 | |||
| XRT (IXS1608BP500)-20-100 | 144 | |||
| XRT (IXS1608BP500)-24-100 | 168 | |||
| XRT (IXS1608BP500)-32-100 | 228 | |||
| XRT (IXS1608BP500)-40-100 | 288 | |||
| Small Lump | 12-60 | XRT (IXS1608BP500)-12-60 | 35 | |
| XRT (IXS1608BP500)-16-60 | 48 | |||
| XRT (IXS1608BP500)-16-60 | 60 | |||
| XRT(IXS1608BP500)-24-60 | 70 | |||
| XRT (IXS1608BP500)-32-60 | 96 | |||
| XRT (IXS1608BP500)-40-60 | 120 | |||
| H Series | Large Lump | 300-50 | XRT(IXS1608BP500)-H280-300 | 280 |
| XRT (IXS1608BP500)-H380-300 | 380 | |||
| XRT(IXS1608BP500)-H480-300 | 480 | |||
| XRT(IXS1608BP500)-H580-300 | 580 | |||
| Medium Lump | 100-25 | XRT (IXS1608BP500)-H125-100 | 125 | |
| XRT (IXS1608BP500)-H210-100 | 210 | |||
| TDS(IXS160BP500)-H170-100 | 170 | |||
| XRT (IXS1608BP500)-H260-100 | 260 | |||
| Small Lump | 10-60 | XRT (IXS1608BP500)-H050-60 | 50 | |
| XRT (IXS1608BP500)-H070-60 | 70 | |||
| XRT (IXS1608BP500)-H090-60 | 90 | |||
| XRT (IXS1608BP500)-H110-60 | 110 |
Note:
The processing capacity of the equipment is related to the actual density of the minerals. The selection coefficients for different mineral types are as follows:
(1) Selection coefficient 1.0 applies to: phosphate ore, vanadium ore, kaolin rock, molybdenum ore, copper ore, copper-zinc ore, tungsten ore, tin ore, antimony ore, gold ore, nickel ore, calcite, quartz stone, and limestone
(2) Selection coefficient 1.1 applies to: fluorite ore and manganese ore.
(3) Selection coefficient 1.2 applies to: lead-zinc ore, iron ore, and barite.
Example:
Mineral type: Iron ore
Equipment model: XRT(IXS160BP500)-H280-300-Fe
Maximum processing capacity = 280*1.2 = 336 t/h
The table lists standard models and their processing capacities. For other processing requirements, please consult our product technical team.
| Serial | Model | Length (mm) |
Width (mm) |
Height (mm) |
Weight (t) |
|---|---|---|---|---|---|
| Standard Series | XRT12 | 11,600 | 2,370 | 3,080 | 12.50 |
| XRT16 | 11,600 | 2,770 | 3,160 | 14.60 | |
| XRT20 | 11,600 | 3,170 | 3,240 | 16.70 | |
| XRT24 | 11,600 | 3,570 | 3,240 | 19.50 |
| Serial | Model | Length (mm) |
Width (mm) |
Height (mm) |
Weight (t) |
|---|---|---|---|---|---|
| H Serires | XRT12-H | 12,700 | 2,630 | 3,080 | 14.2 |
| XRT16-H | 12,700 | 3,030 | 3,160 | 17.3 | |
| XRT20-H | 12,700 | 3,430 | 3,240 | 20.4 | |
| XRT24-H | 12,700 | 3,830 | 3,240 | 24.0 |
Note:All dimensions and weights are provided for reference only. Final data is subject to the actual product supplied.
-Real-time data analysis and image recognition to separate ore from waste.
-Adaptive learning improves performance as material changes.
-Multi-sensor fusion and predictive control for enhanced sorting accuracy
-Trusted Hardware:All key components are carefully selected and tested under harsh operating conditions to guarantee long-term reliability.
-Proven Software:Intelligent sorting algorithms have been refined through more than a decade of continuous optimization and validated by data from 520+ field applications.
-Smart Valve Design:Modular wear components, including electromagnetic valves, enable fast replacement. Individual valve failures do not interrupt continuous system operation.
-Preventive Maintenance :Real-time monitoring of operating hours, loading rate, gangue ratio, compressed air pressure, and X-ray source temperature enables predictive maintenance. Additionally, an integrated early fault detection function minimizes the risk of unexpected machine shutdown.
By leveraging intelligent algorithms to reduce consumption of compressed air, and variable-frequency drive (VFD) compressor , the system reduces energy consumption by 20% compared with conventional methods.
-Our expert team provides continuous equipment monitoring and remote assistance from the Tianjin Eco-City facility
-Remote diagnostics enable rapid issue identification and provide practical solutions to minimize downtime and ensure stable operation.




