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Hoş geldiniz. Shaanxi KeGu New Material Technology Co., Ltd
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Pusher Kiln LMFP / LFP for Automated Manufacturing Systems

Basic Properties
Place of Origin: Çin
Brand Name: KeGu
Model Number: İtici Fırın (LMFP / LFP)
Trading Properties
Minimum Order Quantity: Pazarlık edilebilir
Price: Price is negotiable
Payment Terms: L/C,D/A,D/P,T/T,Western Union
Supply Ability: Pazarlık edilebilir
Ürün Özetleri
Pusher Kiln (LMFP / LFP) LFP/LMFP Cathode Material Fully Automatic Continuous Pusher Furnace: Technical Overview Equipment Application & Process Positioning This equipment is a fully automatic continuous pusher furnace – a specialized thermal processing system designed for the high-temperature solid...

Ürün Ayrıntıları

Vurgulamak:

LMFP Pusher Kiln

,

Long Lasting LMFP Pusher Kiln

Ürün Tanımı
Pusher Kiln (LMFP / LFP)
LFP/LMFP Cathode Material Fully Automatic Continuous Pusher Furnace: Technical Overview
Equipment Application & Process Positioning
This equipment is a fully automatic continuous pusher furnace – a specialized thermal processing system designed for the high-temperature solid-state sintering of lithium-ion battery cathode materials, specifically Lithium Iron Phosphate (LFP) and Lithium Manganese Iron Phosphate (LMFP). Its primary process role is to replace traditional batch kilns and rotary kilns by utilizing a pusher-driven continuous step-by-step conveying mechanism, enabling a fully closed-loop, uninterrupted workflow from preheating/debinding, high-temperature sintering, to controlled cooling. This configuration meets the increasingly stringent requirements of power battery materials for high purity, superior consistency, and controlled particle morphology.
Machine Architecture & Functional Modules
  • Feeding & Dosing Module (Left Section): Includes an automatic weighing system, crucible (sagger) loading mechanism, and powder vibration leveling unit. The core function is to maintain uniform batch-to-batch weight and tap density of the precursor powder loaded into each sagger, eliminating variability from the very start of the process.
  • Thermal & Atmosphere Control Module (Middle Section): Comprises a multi-zone furnace body, gas-tight dynamic sealing mechanism, and gas piping system. This module supports multi-segment PID independent temperature control and precise atmosphere purging, continuously removing byproduct gases while maintaining a micro-positive pressure inert protective atmosphere (N₂) to prevent oxygen contamination.
  • Electrical Control & Discharge Module (Right Section): Features an integrated PLC (Programmable Logic Controller), power regulation units, and HMI (Human-Machine Interface). The discharge end is equipped with a glovebox interface, allowing direct transfer of high-temperature sintered material under a protective atmosphere to subsequent processing steps, thereby preventing re-oxidation during cooling.
Process Compatibility & Technical Advantages
The equipment is specifically optimized for the solid-state reaction characteristics of LFP/LMFP materials:
  • In-Situ Preservation of Particle Morphology: Unlike the dynamic tumbling action in conventional rotary kilns, the pusher furnace relies on static crucible/sagger loading. The material experiences no mechanical shear or inter-particle abrasion during heating. This feature preserves the inherent spherical or quasi-spherical morphology of the precursor, eliminating the need for secondary milling and directly yielding a high tap-density finished cathode product.
  • Multi-Atmosphere Gradient Sintering Capability: LFP/LMFP synthesis typically involves two distinct stages: initial debinding/dehydration followed by carbothermal reduction phase transformation. The pusher furnace, via its multi-zone independent control and segmented gas isolation technology, enables seamless atmosphere transitions within a single furnace body—a process breakthrough that conventional rotary kilns, limited by dynamic sealing constraints, find difficult to achieve.
Comparative Analysis vs. Traditional Rotary Kilns
Based on industrial empirical data, the pusher furnace demonstrates clear advantages over conventional rotary kilns across key process metrics:
Comparison Aspect Fully Automatic Continuous Pusher Furnace Conventional Continuous Rotary Kiln
Material Support Method Static heap sintering in saggers/crucibles Dynamic tumbling and rolling inside the kiln tube
Particle Morphology Retention Excellent – No mechanical wear, intact precursor morphology Poor – Continuous tumbling leads to sphere breakage and powdering
System Gas Tightness Very High – Fully static seals, easy to maintain stable micro-positive pressure Average – Dynamic rotary seals risk leakage and oxygen ingress
Batch-to-Batch Consistency Very High – Uniform temperature and atmosphere distribution across the chamber; low process parameter dispersion Lower – Significant axial temperature gradient along the kiln tube, risk of local over-sintering or under-sintering
Applicable Material Grade High – Suitable for high energy density, high tap-density LFP/LMFP Low – Mostly for energy storage grades or precursor pre-calcination where particle shape is less critical
Intelligent Control & Data Traceability
The equipment is equipped with a large integrated control cabinet offering full industrial automation capabilities. The system can acquire and record real-time process parameter curves for each individual sagger (including zone temperatures, atmosphere dew point, pushing cycle, and dwell time at each furnace position), enabling full lifecycle data traceability for every batch of material. Combined with online fault diagnosis and predictive warning mechanisms, the furnace supports continuous stable operation while maintaining a finished product yield above 99%, significantly minimizing process control risks.
Conclusion
As the core production equipment for large-scale LFP/LMFP cathode material manufacturing, the fully automatic continuous pusher furnace has become an irreplaceable high-volume production platform for advanced power battery materials. Its unique advantages—including in-situ particle morphology preservation, compatibility with multi-atmosphere gradient sintering processes, and superior batch-to-batch consistency—make it the preferred thermal processing technology for current and next-generation high-end cathode material production.
For further information or to discuss your specific requirements, please contact us directly.
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