- Overview
- Parameter Specifications
Industrial Metal Intelligent Sorting Machine|Precise Sorting, Value Multiplied
Utilizing Spectral Sensing and AI Recognition Technology to Achieve High-Speed, High-Precision Separation of Non-Ferrous Metals and Non-Metallics
Product Overview
This Industrial Metal Sorting Machine (also known as a Metal Color Sorter) is high-tech intelligent equipment specifically designed for industries such as renewable resource recovery, scrap metal processing, electronic waste dismantling, and mineral sorting. Integrating multi-spectral sensing, X-ray transmission, and artificial intelligence analysis technologies, the equipment can automatically identify and perform high-speed sorting of non-ferrous metals (such as copper, aluminum, zinc, stainless steel, etc.) from mixed materials, separating them from non-metallic impurities or different metal types. This enables high-purity recovery of resources and maximizes their value.
Core Value: Increases recovered metal purity, improves sorting efficiency, replaces manual sorting, reduces overall costs.
Core Technical Principle
The equipment employs an intelligent sorting logic of "Sense - Judge - Execute":
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Sense: High-precision sensor arrays (including visible light, near-infrared, laser, and optional X-ray sensors) perform multi-dimensional scans of the material, collecting characteristic data such as color, luster, density, and atomic number.
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Judge: Built-in AI algorithm models analyze the data in real-time, accurately determining the metal type of each particle (e.g., distinguishing copper from brass, aluminum from stainless steel) or its metal/non-metal properties.
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Execute: The system drives high-frequency electromagnetic ejection valve arrays to precisely blow target metal particles or impurity particles into corresponding collection chutes, achieving separation.
Core Advantages
1. Multi-Technology Fusion for Precise Recognition
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Multi-Spectral Recognition: Effectively distinguishes metals and coatings of different colors and lusters based on the spectral reflection characteristics of the material surface.
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Optional X-ray Transmission (XRT) Recognition: Based on differences in material density and atomic number, it can effectively sort metals with similar densities (e.g., copper and zinc), or identify metal parts enclosed in plastic.
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AI Deep Learning: The algorithms continuously learn the characteristics of metals from different sources and oxidation states, becoming more accurate with use.
2. High Processing Capacity, Wide Adaptability
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Wide Particle Size Range: Can process shredded metal material with a particle size range from 3mm to 150mm.
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High Throughput: Single-machine processing capacity can reach up to 10 tons/hour (depending on material density and particle size).
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Strong Anti-Interference: Dust-proof and shock-proof design, suitable for harsh operating conditions in the recycling industry.
3. Intelligent, Efficient, Stable, and Durable
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One-Touch Operation: Pre-set multiple metal sorting programs (copper-aluminum separation, stainless steel sorting, non-metal removal, etc.) for easy switching.
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Data-Driven Management: Records sorting purity, yield, and equipment status in real-time, supporting data export and analysis.
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Industrial-Grade Durability: Key contact parts use wear-resistant materials; ejection valve life exceeds hundreds of millions of cycles; low maintenance cost.
Detailed Technical Specifications
| Parameter Category | Specific Description |
|---|---|
| Applicable Materials | Shredded non-ferrous scrap metal (copper, aluminum, zinc, lead, stainless steel, etc.), shredded electronic waste (e-waste), Automotive Shredder Residue (ASR), shredded waste wire and cable, mining tailings, etc. |
| Sorting Types | Metal vs. Non-Metal (plastic, rubber, wood, stone, etc.) / Separation between different non-ferrous metals (e.g., copper vs. aluminum) |
| Processing Capacity | 2 - 10 tons/hour (depending on material density and particle size) |
| Recognition Technology | High-resolution multi-spectral imaging (standard), optionally configurable with X-ray Transmission (XRT) or Laser-Induced Breakdown Spectroscopy (LIBS) modules |
| Minimum Recognizable Particle Size | ≥ 3mm |
| Sorting Accuracy | Metal recovery rate > 98%, metal product purity > 96% (depending on feedstock contamination level) |
| Ejection Valve System | High-frequency electromagnetic ejection valves, response time ≤ 1 ms |
| Control System | Industrial PC, 15-inch touch screen |
| Power Consumption | Main unit power approx. 5-15 kW (excluding optional modules like XRT) |
| Air Source Requirements | Compressed air, pressure 0.6-0.8 MPa, requires a dryer |
Application Scenarios & Sorting Results
Typical Application 1: Waste Wire & Cable Recovery
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Feedstock: Mixture of copper/aluminum granules and plastic after shredding and stripping.
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Challenge: Plastic and metal granules have similar size and color; density-based sorting (water separation) causes pollution and has limited purity.
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Solution: Use this equipment to sort based on the spectral reflection differences between metal and plastic.
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Result: Obtain copper/aluminum granules with purity >99%; metal residue in plastic <1%; significant value increase.
Typical Application 2: Electronic Waste (PCB) Shredded Material Sorting
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Feedstock: Mixture of metal and non-metal powder from shredded waste circuit boards.
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Challenge: Complex material composition, containing epoxy resin, fiberglass, and various metals.
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Solution: Activate the XRT module for precise sorting based on density differences of different materials.
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Result: Efficiently enriches precious metal particles, improving subsequent metallurgical efficiency and profitability.
Typical Application 3: Non-Ferrous Metal Recovery from Automotive Shredder Residue (ASR)
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Feedstock: Mixture of non-ferrous metals (copper, aluminum, zinc, stainless steel, etc.) after shredding and magnetic separation of automobile bodies.
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Challenge: Multiple metal types, irregular shapes, surfaces may have stains or coatings.
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Solution: Employ multi-spectral + AI models to learn the surface characteristics of different metals.
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Result: Achieves high-purity separation of copper, aluminum, stainless steel, etc., enhancing resource recovery value.
Economic Benefit Analysis (Example: Waste Wire & Cable Sorting)
| Item | Traditional Manual/Mechanical Sorting | Using Metal Color Sorter | Benefit Improvement |
|---|---|---|---|
| Copper Granule Purity | 90%-95% | 98%-99.5% | Selling price increase 8%-15% |
| Labor Dependency | High, requires multiple sorters | Low, only 1 person for monitoring | Saves over 70% in labor costs |
| Processing Speed | Slow, unstable | Fast, up to 3-5 tons/hour | Processing capacity increased 3-5 times |
| Metal Loss | Relatively high (5%-10%) | Very low (<1%) | Directly increases recovery revenue |
| Environmental Impact | May involve wet process, produces wastewater | Pure physical dry sorting, no pollution | Environmentally compliant, no treatment costs |
Service & Support
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Free Material Analysis: Provides laboratory-grade material testing and sorting feasibility assessment.
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Customized Solution Design: Offers personalized sorting line configuration based on your raw material characteristics, capacity requirements, and target product specifications.
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Turnkey Project: Responsible for equipment installation, commissioning, operator training, and production process optimization guidance.
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Full Lifecycle Service: Provides genuine spare parts, remote technical support, regular maintenance, and technical upgrade services.





