Multi-tabs Die-cutting and Slitting Machine
Multi-tabs Die-cutting and Slitting Machine

Use Cases

Forms multi-tab electrode patterns through mechanical die-cutting while slitting the continuous web to production width in high-volume manufacturing.

Why this machine: For high-volume production with stable designs, laser systems can be over-specified. Die-cutting offers superior throughput and lower cost-per-cell while maintaining high repeatability.

Ideal User: High-volume manufacturers with mature, standardized tab designs (e.g., Power banks, standard smartphones).

When to choose: When cost-sensitivity and maximum throughput are the primary goals and the coating type does not require laser processing.

Related Equipment: Multi-tabs laser cutting & slitting machine for battery cells · Single-piece die-cutting machine



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Multi-tabs Die-cutting and Slitting Machine

Equipment Features

These features maintain mechanical die-forming stability during high-speed tabbing and slitting operations.

  • Dedicated mechanical structure for multi-tabs electrode forming

  • Integrated die-cutting and slitting architecture

  • Servo-driven tension control to prevent tab deformation

  • Multi-stage rectification for long-run stability

  • Dual-side tab forming capability

  • Targeted dust collection at cutting and slitting zones


Core Advantages: Die-Cutting vs. Laser Cutting

Die-Cutting (Hardware)

  • Mechanical Stability & Cost Efficiency: Ideal for standardized electrode designs with limited format variation, offering a mechanically stable and cost-effective solution.

  • Low Operational Variability: For long production runs, stable tab geometries, and a small number of electrode models, it eliminates frequent parameter tuning and format revalidation. Once tooling is finalized, production changeover time and operational variability are significantly reduced.

  • Predictable Costs: Requires lower initial equipment investment and delivers predictable operating costs when model diversity is limited.

  • Best For: Mature consumer electronics, light EV, and small energy storage applications where process stability, throughput consistency, and controlled manufacturing costs are primary objectives.

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Laser Cutting

  • Material Integrity: Enables non-contact electrode processing, eliminating mechanical stress on thick or high-loading coatings. This is critical in EV and ESS electrode development, as preserving coating integrity directly impacts achievable energy density and cycle stability.

  • Design Flexibility: Removes mold dependency, allowing faster design iteration and format changes during R&D and pilot stages.

  • Future-Proofing: For manufacturers validating new chemistries or scaling large-format electrodes, it offers a future-proof path that balances precision, flexibility, and material utilization efficiency.

  • Best For: R&D, evolving designs, and high-flexibility applications requiring uncompromised material integrity.