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Laser Cutting for Flexible Materials: A Comprehensive Guide
https://www.unilasertec.com 11/21/2024 7:08:11 AM 1

In modern manufacturing, laser cutting technology is widely used for its high precision, efficiency, and non-contact processing characteristics. Particularly for the cutting of flexible materials, laser technology demonstrates unique advantages. This article provides a comprehensive overview of the types, characteristics, advantages, and applications of lasers suitable for cutting flexible materials, tailored to the reading habits of European and American audiences.

1. UV Laser: Precision Cutting with Minimal Carbonization

- **Wavelength & Characteristics**: UV lasers have a short wavelength, typically 355nm, allowing for easy optical focusing and fine spot size.

- **Processing Advantages**:
    - High Precision: Clean and neat cutting edges, ideal for scenarios requiring high-precision cutting.
    - Minimal Carbonization: Achieves little to no carbonization during cutting.
    - Cold Processing: Minimal thermal impact, suitable for heat-sensitive materials.

- **Application Materials**:

    - Plastics: Such as PVC, PC, ABS, etc.
    - Rubber and Leather: Creates fine cutting patterns and text.
    - Flexible Circuits: Ideal for high-precision, low-carbonization cutting.

2. CO₂Laser: Cost-Effective and Efficient Cutting Solution

- **Wavelength & Characteristics**: CO₂ lasers have a wavelength of 10.6μm and a larger spot size, resulting in lower processing costs.

- **Processing Characteristics**:

    - Cost-Effective: Provides laser power up to several kilowatts.
    - Significant Thermal Impact: Generates substantial heat during cutting, potentially causing edge damage and carbonization.

- **Application Materials**:

    - Wood: Cuts and engraves various types of wood.
    - Acrylic: Suitable for cutting in applications like signboards and light boxes.
    - Fabrics, Leather: Fine cutting and engraving.
    - Rubber, Plastics, and Some Metals: Such as thin metal sheets.

3. Infrared Fiber Laser: High-Power, Fast-Cutting Expert

- **Wavelength & Characteristics**: Infrared fiber lasers operate at the 1064nm wavelength, offering high power and fast cutting speeds.

- **Processing Characteristics**:

    - High Power: Ideal for scenarios requiring high-power cutting.
    - Significant Thermal Impact: Generates considerable heat during cutting.

- **Application Materials**:

     - Metals: Particularly suitable for thick metal materials.
    - Some Non-Metals: Applied in scenarios where precision is not the highest priority.

4. Green Laser: Reduced Thermal Impact, Moderate Precision

- **Wavelength & Characteristics**: Green lasers operate at the 532nm wavelength, resulting in lower thermal impact compared to infrared lasers.

- **Processing Advantages**:

    - Reduced Thermal Impact: Minimal heat affect on the processed edges.
    - Moderate Precision: Valuable for applications where very high precision is not required.

- **Application Materials**:

    - Metals: Such as thin metal sheets or tubes.
    - Non-Metals: Including plastics, wood, and ceramics.

Conclusion

In summary, different laser types have their unique advantages and application scopes when cutting flexible materials. When selecting a laser, it is essential to consider factors such as material properties, cutting precision requirements, processing costs, and laser equipment performance. By understanding the characteristics and applications of each laser type, we can make more informed choices, improve production efficiency, reduce processing costs, and ultimately create greater value for businesses.