The Fiber Laser Marking Machine is an industrial marking solution designed to create clear, precise, and durable markings on compatible materials. Equipped with a Raycus laser source, a JHC galvanometer scanner, and a CNF-130 control system, this machine combines reliable laser technology with efficient marking capabilities for industrial production environments.

With available laser power options of 30W, 50W, 60W, and 100W, the machine can be configured to meet different marking requirements. It is suitable for applications involving product identification, serial numbers, logos, barcodes, QR codes, and other markings, depending on the material and selected settings.

The machine features a compact control cabinet, an adjustable marking head assembly, and a working area available in 110 × 110 mm and 150 × 150 mm configurations. Its marking speed is specified at up to 7,000 mm/s, making it a potential solution for manufacturers seeking an efficient marking process for industrial components and products.

Designed for integration into manufacturing workflows, the Fiber Laser Marking Machine offers a practical combination of marking precision, configurable laser power, and convenient operation.

Key Features of the Fiber Laser Marking Machine

Raycus Laser Source

The machine uses a Raycus laser source to generate the laser beam required for marking applications.

A fiber laser source is commonly used in industrial marking because it can produce fine details and consistent markings on compatible materials. Its suitability for a specific application depends on the material composition, surface condition, marking depth, and selected laser parameters.

Multiple Laser Power Options

The Fiber Laser Marking Machine is available in four laser power configurations:

• 30W
• 50W
• 60W
• 100W

These options allow manufacturers to select a configuration according to their marking requirements. Lower-power configurations may be suitable for many standard identification and surface-marking tasks, while higher-power options can provide greater processing capability for certain applications. However, actual performance depends on the material, marking method, required depth, and operating parameters. Choosing the appropriate laser power helps balance marking quality, processing time, and application requirements.

High-Speed Marking Performance

The machine has a specified marking speed of up to 7,000 mm/s.

High-speed laser marking can help improve production efficiency when marking large numbers of components or applying repetitive product information. Actual production throughput depends on the marking content, material, required contrast, component handling time, and machine settings. For manufacturers with recurring marking tasks, the system can support efficient processing when properly configured for the application.

JHC Galvanometer Scanning System

The machine incorporates a JHC galvanometer scanner that directs the laser beam across the designated marking area. Galvanometer scanning systems use controlled mirrors to position the laser beam rapidly, allowing text, graphics, and other marking patterns to be produced without moving the entire laser head across every point of the design. This technology is widely used in industrial laser marking because it supports fast scanning and detailed marking patterns.

High Marking Precision

The supplied specifications list a repeatability value of 0.01 mm.

Repeatability describes the ability of a system to reproduce a position or movement consistently. This specification should not automatically be interpreted as the guaranteed marking accuracy or minimum achievable line width. Actual marking quality depends on the optical system, material, laser parameters, focus, and the design being marked.

Flexible Working Area

The machine offers two working-area configurations:

• 110 × 110 mm: Standard configuration.
• 150 × 150 mm: Alternative configuration.

The working area determines the maximum field available for marking without repositioning the workpiece. A 110 × 110 mm field may be appropriate for smaller components and compact marking designs, while a 150 × 150 mm field provides a larger marking area for suitable applications. The appropriate configuration depends on the size of the product and the required marking dimensions.

Convenient USB Connectivity

The machine specifications identify USB as its interface. USB connectivity can support communication with compatible computers and control equipment, depending on the installed software and system configuration. This can help integrate the marking process into a production workflow where marking designs and product information are prepared digitally.

Compact Industrial Design

The machine features a dedicated control cabinet and a vertically adjustable marking-head assembly. Its overall dimensions are approximately 2163 × 620 × 1570 mm, with a listed weight of 100 kg. These specifications help manufacturers assess the installation space and handling requirements before integrating the machine into their production facilities.

How Does a Fiber Laser Marking Machine Work?

A Fiber Laser Marking Machine uses concentrated laser energy to create a visible mark on the surface of a compatible material. Depending on the material and process settings, the laser may change the surface appearance, create contrast, or remove a controlled amount of material. The marking process generally involves the following steps.

Step 1: Prepare the Product

The component to be marked is placed in the designated working area. Proper positioning helps ensure that the marking appears in the intended location and maintains the required orientation.

Step 2: Prepare the Marking Design

The required content is prepared using compatible marking software.

Depending on the application, the design may include:

• Company logos.
• Product names.
• Serial numbers.
• Manufacturing codes.
• QR codes and barcodes.
• Text and graphic elements.

The available functions depend on the machine’s control system and compatible software.

Step 3: Configure the Laser Parameters

The operator selects suitable settings for the material and marking requirements. Important parameters may include laser power, marking speed, frequency, pulse settings, and focus position, depending on the laser source and controller. Correct parameter selection is essential for achieving the desired contrast and marking quality.

Step 4: Execute the Marking Process

The galvanometer scanner directs the laser beam across the workpiece according to the programmed design. The interaction between the laser and the material produces the required mark. The resulting appearance depends on the material and the selected marking method.

Step 5: Inspect the Finished Mark

The finished component is checked to ensure that the marking is legible and correctly positioned. For applications involving serial numbers, traceability codes, or product identification, inspection helps verify that the marked information meets the production requirements.

Advantages of Fiber Laser Marking Technology

High-Speed Processing

Fiber laser marking supports rapid beam movement and can process many marking designs without conventional mechanical engraving tools. This makes the technology suitable for production environments where components require repeated identification or labeling.

Detailed and Consistent Markings

The focused laser beam can produce fine text, symbols, and graphics on compatible surfaces. When the machine is correctly configured, it can support consistent marking results across repeated production runs.

Non-Contact Processing

Laser marking does not require a conventional cutting or engraving tool to make physical contact with the workpiece. This can reduce mechanical tool wear associated with contact-based marking methods. However, the laser may still modify or remove surface material depending on the selected process.

Flexible Marking Content

Digital marking designs can be adapted to different products and identification requirements. Manufacturers can prepare different serial numbers, logos, codes, and text layouts, subject to the capabilities of the control software.

Support for Product Traceability

Marking unique identifiers directly onto components can help businesses track products through production and quality-control processes. The usefulness of this approach depends on marking durability, code readability, and the company’s traceability system.

Multiple Power Configurations

The availability of 30W, 50W, 60W, and 100W options allows the machine to be selected according to different application requirements. This flexibility can help manufacturers match the equipment to their expected marking tasks.