Semi-Auto Battery Module PACK Production Line
The semi-automated battery PACK assembly line(Uptime for 4-8 PPM) combines advanced automation with manual operations to provide a cost-effective and flexible solution for producing high-quality battery pack. Annual capacity: 500 MWh–1GWh, optimized for the assembly of battery packs used in energy storage systems, and other high-demand applications.
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Details Introduction
The semi‑auto battery module & PACK production line is a comprehensive manufacturing solution for lithium battery modules and PACKs, covering all key processes from cell OCV testing, stacking, busbar laser welding, and harness assembly to module EOL testing. Both standalone equipment and distributed systems seamlessly integrate with MES through a centralized scheduling system, enabling real‑time data exchange, upstream/downstream coordination, and production capacity alignment.
With a production speed of 4–8 PPM and a yield rate of ≥99%, the line delivers an annual output of 500 MWh–1 GWh, optimized for EV, energy storage systems, and other high‑demand applications.
Key Features
✅️ Flexible Production Capacity
Supports 4–8 PPM throughput with annual output of 500 MWh–1 GWh, adaptable to varying order volumes and production schedules.
✅️ Multi‑Cell Format Compatibility
Accommodates cylindrical, prismatic, and pouch cells with quick changeover for different module configurations.
✅️ Semi‑Automated, Cost‑Effective Operation
Combines advanced automation with manual operations, balancing high quality output with lower capital investment and operational flexibility.
✅️ Complete Process Coverage
Integrates cell processing, stacking, laser welding, harness assembly, gluing, BMU fan assembly, and EOL testing in one streamlined workflow.
✅️ Intelligent Quality Assurance
Features barcode traceability, OCV/IR testing, polarity detection, pre‑weld addressing, post‑weld inspection, and full EOL testing to ensure product reliability.
✅️ MES‑Ready Integration
Centralized scheduling system enables seamless MES connectivity for full production traceability, real‑time data exchange, and upstream/downstream coordination.
Parameter
| Parameter | Specification |
|---|---|
| Production Speed | 4 – 8 PPM |
| Annual Output | 500 MWh – 1 GWh |
| Yield Rate | ≥99% |
| Compatible Cell Types | Cylindrical, prismatic, and pouch cells |
| MES Integration | Centralized scheduling system with real‑time data exchange |
| Applications | Battery packs, energy storage systems, and high‑demand applications |
Keyword:
Semi-Auto Battery Module PACK Production Line
Related Products
What Are the Main Processes in a Lithium Battery PACK Production Line?
From cell to battery pack, the process includes: cell sorting → module stacking → pole welding (spot welding/laser welding) → BMS installation and wiring connection → insulation voltage withstand test → EOL comprehensive test. Welding and testing are the critical steps that determine the yield rate.
How Are the Production Capacity and Yield Rate of A Lithium Battery PACK Production Line Measured?
There are two core indicators: production cycle time (PPM), which means the number of modules produced per minute – industry high‑efficiency lines can reach 12‑15 PPM; and yield rate, with the industry standard requiring ≥99%. The yield rate is affected by cell consistency, welding quality, and test coverage.
Why Spot Welders Are Commonly Used for Cell Connection in PACK Lines?
A battery spot welder is a type of resistance welding that uses low voltage and high current to melt the metal at the contact point within milliseconds. The heat is concentrated and does not damage the cells, and the weld spot tensile strength reaches ≥12 kg, making it the most reliable and efficient connection method for cylindrical cell assembly.
What Welding Processes are Mainly Used in a Lithium Battery PACK Production Line?
In a lithium battery PACK production line, laser welding is the most widely used core process, suitable for cell tab welding, module busbar welding, housing sealing, and more. Its advantages include high precision, a small heat-affected zone, effective protection of cells from heat damage, and reliable joining of dissimilar metals such as copper and aluminum.