electromagnetic separator dry type
Electromagnetic Separator (Dry Type)
Industrial Wet-Type Electromagnetic Separator for Battery Slurry Purification
Electromagnetic Separator (Wet Type)
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Industrial Wet-Type Electromagnetic Separator for Battery Slurry Purification

23000Gs Wet Type Electromagnetic Separator for High-Purity Slurry Separation

Engineered for PPB-Level Purity

Precision Slurry De-ironing Solution

Significantly reducing sub-micron paramagnetic contaminants from battery-grade slurries and fine ceramics with industry-leading thermal magnetic stability.

Ultra-High Purity: Achieves stringent PPB-level quality standards.

Thermal Stability: Coil temperature rise < 45°C for 24/7 duty.

Peak Induction: Up to 6,300 Gs background and 2.4T matrix peaks.

Full Automation: Advanced PLC coordinates seamless “Capture-Purge” cycles.

Application Scope:

NCM / LFP Precursors, Battery Slurries,CNT / Conductive Agents,High-Purity Kaolin,Feldspar / Talc,Quartz Sand (PV Grade),Alumina Slurry

Wet Type Electromagnetic Separator Solutions Engineered for Battery Materials, Fine Ceramics, and High-Purity Minerals

In the production of lithium-ion battery materials (such as LFP and NCM) and conductive slurries, even trace amounts of paramagnetic metallic impurities can significantly compromise electrochemical performance and safety stability. The MAG SPRING series wet type electromagnetic separator is developed and manufactured by its parent company, Souwest Magnetech (Publicly listed, Stock Code: 920061). By combining high-gradient magnetic field design with an optimized thermal management system, it provides a reliable purification foundation for high-end manufacturing.

Core Technical Advantages & Design Features

01
Advanced Thermal Management & Magnetic Stability Control

Overcoming magnetic flux fluctuations caused by coil resistance changes during continuous operation.

Constant Magnetic Field Technology: Utilizing a closed-loop stepless voltage regulation system based on PID negative feedback principles to ensure consistent magnetic intensity throughout the production cycle.

Active Oil-Cooling Circulation: Optimized via Computational Fluid Dynamics (CFD), our forced circulation heat exchange limits the coil temperature rise to under 45°C, extending component longevity.

02
Optimized Magnetic Field Distribution & High-Gradient Induction Matrix

FEA-Optimized Magnetic Design:
Our advanced excitation coils are precision-engineered using Finite Element Analysis (FEA) to ensure
a perfectly uniform magnetic field distribution. This sophisticated modeling maximizes the effective
magnetic flux volume across the entire separation chamber for consistent purification results.

High-Gradient Induction Matrix:
Under high-power excitation, the specialized matrix tips generate intense localized magnetic fields.
With simulated peak values reaching 2.1 – 2.4 Tesla, the system enables
the precision capture of micron-sized weakly magnetic impurities and paramagnetic particles.

FEA Magnetic Field Simulation showing 2.4T High-Gradient Induction zones of Electromagnetic separator core unit

FEA simulation: Peak induction zones

03
H-Class Insulation Standards & Long-Term Durability

High-Standard Coil Manufacturing: Produced to transformer-grade standards, offering superior voltage resistance and insulation performance.

High-Temperature Resistance: Meets H-Class insulation ratings, ensuring operational reliability in demanding industrial environments.

04
Automation Integration & Intelligent Operation

Smart PLC Control: Equipped with industrial-grade control (≥IP54), supporting fully automated “Capture-Wash” cycles via intuitive touchscreens.

System Linkage: Standard communication interfaces (DCS/SCADA) for remote monitoring and digitized production management.

Technical Specifications

Performance Indicators Standard Series High-Efficiency Series
Background Field (Measurable) 3,300 – 4,200 Gs 5,700 – 6,300 Gs
Matrix Induced Peak (FEA Data) 1.4 – 1.6 Tesla 2.1 – 2.4 Tesla
Target Applications Fine Ceramics / Kaolin Battery Slurry / NCM / LFP

Technical Implementation Notes:

  • Background Magnetic Field: Verified via calibrated Tesla meter. Protocols adhere to IEEE Magnetics Society frameworks.
  • Matrix Induced Peak: Represents simulated FEA data for localized gradients designed for sub-micron paramagnetic capture.

Comprehensive Application Range

Battery Materials

  • Cathode: LFP, NCM, LCO, LMO
  • Anode: Graphite, Silicon-carbon
  • Slurries & CNT Dispersions

Non-Metallic Minerals

  • High-purity Kaolin & Quartz Sand
  • Feldspar & Refractory Materials
  • Fine Ceramic Glazes & Pigments

Specialty Chemicals

  • Electronic Chemicals & Intermediates
  • Pharmaceutical Grade Ingredients
  • High-purity Additive Purification
Ceramic glaze purification with automatic slurry electromagnetic separator

Industrial Installation Site

LFP cathode slurry de-ironing process using MAG SPRING electromagnetic separator

High-Gradient Core Unit

Carbon Nanotube CNT dispersion purification via high-intensity magnetic separation

CNT Material Purification

Installation site of wet-type magnetic separator in NCM ternary material production line

NCM Battery Materials

Frequently Asked Questions

Q1: How is magnetic stability maintained during 24-hour operation?

By integrating active forced-oil cooling with constant-current PID regulation, we maintain magnetic flux variance within <1.5%.

Q2: Why is peak field induction based on FEA simulation?

Standard probes cannot fit into microscopic gradient zones. FEA is the globally recognized method for validating sub-micron capture force.

Q3: How does the “Automatic Capture-Purge” cycle improve efficiency?

The PLC system automates valve sequences for feeding and flushing, ensuring zero-downtime cleaning and consistent high-purity output.

Q4: Can this system handle highly viscous battery slurries?

Yes. The MAG SPRING series is optimized for conductive slurries and pastes with viscosities up to 10,000 mPa·s.

Q5: What is the expected service life of the electromagnetic coils?

With H-Class insulation and stable thermal control, coils are designed for a service life of 10-15 years under industrial conditions.

Related Separation Solutions


Electromagnetic Powder Separator (Dry Type)

High-gradient solution specifically engineered for cathode powder purification.

 


Automatic Rotary Magnetic Separator

Eliminates bridging issues in viscous or poor-flowing raw materials.

 


Permanent Magnetic Grates & Drawers

Economical, high-efficiency iron removal for basic processing lines.

 

Latest from our Technical Blog


Enhancing Li-ion Battery Safety via High-Gradient Separation

Learn how sub-micron paramagnetic removal reduces internal short-circuit risks.

 


Maintenance Guide: Critical Points of Oil-Cooling Systems

Optimizing thermal management to ensure long-term magnetic consistency.

 

Ready to Meet PPB-Level Standards?

Consult with our technical experts for a custom separation configuration tailored to your slurry viscosity.

Get a Technical Quote

High-Performance Wet-Type Electromagnetic Separation Technology

As a professional provider of industrial purification solutions, MAG SPRING offers advanced wet-type electromagnetic separators designed for the most demanding slurry de-ironing processes. Utilizing High-Gradient Magnetic Separator (HGMS) technology, our systems generate a high-intensity magnetic field up to 2.4T, ensuring the effective capture of micron-level ferrous impurities in high-viscosity fluids.

Our automatic slurry magnetic separators are the industry standard for battery material purification, specifically optimized for NCM/LFP cathode materials, Lithium Carbonate, and CNT dispersions. By integrating active oil-cooling systems and PLC-controlled automatic cleaning, we help manufacturers achieve PPB-level material purity while maintaining 24/7 operational stability in ceramic glaze, kaolin, and specialty chemical industries.

Technical FAQ & Knowledge Base

Q: What is the maximum slurry viscosity handled by the MAG SPRING system?

Our high-gradient matrix design is engineered for fluids up to 10,000 mPa·s, making it ideal for high-solid content battery slurries and thick ceramic glazes.

Q: How does the oil-cooling system impact magnetic field consistency?

The forced oil-cooling system ensures precise thermal management. By preventing coil overheating, we keep magnetic flux variance under 1.5% during continuous industrial operation.

Q: Why is HGMS (High Gradient) essential for micron-level iron removal?

HGMS creates concentrated localized magnetic gradients at the edges of the matrix media, providing the extreme capture force needed to trap sub-micron paramagnetic contaminants.

Industry Focus:
Lithium Battery Slurry De-ironing | NCM & LFP Purification | High-purity Kaolin Separation | Ceramic Glaze Iron Removal | Quartz Sand Magnetic Purification | Specialty Chemical Metal Extraction | Automatic Electromagnetic Matrix Cleaning | High Intensity HGMS Technology.

 

Specifications of wet type electromagnetic separator

Model EMS-150-W3 (Standard) EMS-150-W6 (High-Efficiency) EMS-250-W3 (Standard) EMS-250-W6 (High-Efficiency) EMS-300-W3 (Standard) EMS-300-W6 (High-Efficiency)
Excitation Power (Cold State) 8.4 kW 13.9 kW 8.4 kW 18.2 kW 9.5 kW 18.8 kW
Max. Matrix Surface Induction 15000~16000 GS 21000~23000 GS 14000~15000 GS 21000~23000 GS 14000~15000 GS 21000~23000 GS
Background Magnetic Field 4000 GS (±200) 6000 GS (±300) 3500 GS (±200) 6000 GS (±300) 3500 GS (±200) 6000 GS (±300)
Processing Capacity 5~10 m³/h 5~10 m³/h 10~15 m³/h 10~15 m³/h 15~20 m³/h 15~20 m³/h
Nominal Matrix Diameter Φ145 mm Φ145 mm Φ245 mm Φ245 mm Φ295 mm Φ295 mm
Inlet/Outlet Specification DN50 Flange/Clamp DN50 Flange/Clamp DN65 Flange/Clamp DN65 Flange/Clamp DN80 Flange/Clamp DN80 Flange/Clamp
Cooling Water Requirements ≤25℃, ≥50 L/min ≤15℃, ≥80 L/min ≤25℃, ≥50 L/min ≤15℃, ≥80 L/min ≤15℃, ≥80 L/min ≤15℃, ≥80 L/min
Total System Power (Cold) Approx. 10 kW Approx. 15 kW Approx. 10 kW Approx. 19.2 kW Approx. 11 kW Approx. 19.5 kW
Main Unit Weight Approx. 2000 kg Approx. 2500 kg Approx. 2500 kg Approx. 3800 kg Approx. 2800 kg Approx. 4200 kg

Detailed Spare Parts & Components Catalog

Screen Assembly Parts

01. Screen Assembly Parts (Magnetic Matrix)

  • Magnetic Matrix Screen
  • Spacer Mesh / Net
  • Fixing Handle
  • Main Screen Shaft
  • Assembly Configuration

Technical Description: The magnetic matrix is precision-engineered using corrosion-resistant SUS430 stainless steel, treated with specialized surface finishing to maximize magnetic gradient induction. Screen dimensions can be customized based on material particle size, flowability, and specific slurry characteristics.

Standard Nominal Diameters: Φ245mm, Φ295mm (Customizable upon request).

02. Core Auxiliary Components & Systems

Cooling Circulation Pump

Equipped with high-performance cooling pumps. Features a compact design with advanced mechanical seals for space-saving installation and long-term durability.

High-Efficiency Heat Exchanger

Utilizes a fixed tube-sheet structure for maximized thermal exchange efficiency. Optimized for easy cleaning of both the shell-side and water-side.

Separation Cylinder (Housing)

Manufactured from SUS304 stainless steel. Internal and external surfaces are mirror-polished to Ra0.4, ensuring exceptional slurry liquidity and zero residue.

Pneumatic Control Valves

Includes SUS304 double-acting Ball Valves and Angle Seat Valves. Engineered for high-frequency switching and reliable automation cycles.

Maintenance Standards: To ensure the system maintains its PPB-level purification efficiency, we recommend using original MAG SPRING certified components. Please verify serial numbers in the product manual before ordering replacements.