Portable Small Hand-Held 20W 30W Fiber Laser Engraver Marking Engraving Machine

• Laser Visibility: Visible
• Applicable Material: Metal
• Cooling System: Air Cooling
• Technical Class: Continuous Wave Laser
• Laser Wavelength: Fiber Laser
• Laser Classification: Solid Laser
• Type: Optical Fiber Laser Marking Machine
• Marking Method: Scanning Marking
• Model: Itm-Fs
• Laser Power: 20W 30W 50W
• Q-Frequency: 20kHz~100kHz
• Divergence: 0.3mard
• Marking Range: 110*110mm / 200*200mm / 300*300mm
• Transport Package: Plywood Box Package
• Trademark: ITE
• Origin: China
• HS Code: 845611
• Production Capacity: 500 Sets/Month

Product Description

Portable mini fiber laser metal engraving marking machine ITE-FH

Our Advantages

Advantages of a fiber laser marking machine for metales from ITELASER:

1,High quality&reliability
2,Nice performance&versatility
3,Ease of use with good software compatibility
4,Good durability&easy maintenance
5,Value for money
6,Customer support for all the life.
7,Warranty with 3 years

Tecnical parameters

 

Model	ITM-FH
Laser Power	20W 30W 50W
Laser wavelength	1064nm±10nm
Q-frequency	20KHz~100KHz
Divergence	0.3mard
Marking range	110*110mm / 200*200mm / 300*300mm
Minimum line width	0.01mm
Minimum character	0.1mm
Marking speed	10000mm/s
Marking depth	0~0.5mm
Engraving line speed	≤ 7000mm/s
Repeatability accuracy	±0.001mm
Beam quality	M2:1.2~1.8
Marking format	Graphics, text, bar codes, two dimensional code, automatically marking date, batch number, serial Number, frequency,etc
Graphic format supported	bmp, jpg, gif, tga, png, tif, ai, dxf, dst, plt, etc
Working voltage	220V±10% / 50Hz/4A
Unit power	< 0.5kw
Use of the environment	Clean and dust free or dust less
Working condition:Humidity	Free of condensed water
Laser module life	> 100000hours

·Raycus laser source.
Low energy consumption, fast speed, accurate precision and long life.

·Genuine BJJCZ control board.
The system is stable, easy to operate and fully functional.

·Taiwan MEAN WELL power supply.
Stable performance, low failure rate, no need to worry about after-sales.

·SINO-GALVO galvanometer.
Anti-slip coating, wear-resistant and non-slip, clear focus, excellent light perception, support optional.

·High-precision scanning field diameter.
High-precision scanning, sensitive response, more stable marking.


Materials appliables
Exceptionally well-suited for marking various metals, including stainless steel, aluminum, copper, brass, gold, silver, titanium, and alloys. They can create high-contrast and durable marks on metal surfaces, making them widely used in industries like manufacturing, automotive, aerospace, and electronics.and most opaque non-metallic materials, including but not limited to plastics, ceramics, glass, wood, leather, paper, cardboard, and stone, are suitable for fiber laser marking.

 

Samples

 

Benefits of fiber marker

 

Using a fiber laser marking machine offers several benefits compared to other marking technologies. Here are some key advantages:

1,High Precision: Fiber laser marking machines provide exceptional precision and accuracy in marking. They can create intricate designs, small characters, and barcodes with sharp edges and fine details. This makes them suitable for applications that require high-resolution markings.

2,Speed and Efficiency: Fiber lasers are incredibly fast in marking materials. They can achieve high marking speeds, allowing for efficient production processes. The quick processing time improves productivity and reduces cycle times, making fiber lasers ideal for high-volume production environments.

3,Permanent and Durable Markings: Fiber laser marking produces permanent and durable markings that are resistant to fading, smudging, or wear. The laser beam interacts with the material surface, causing a color change or material removal, ensuring long-lasting and high-quality markings.

4,Versatile and Wide Range of Materials: Fiber lasers can mark a wide variety of materials, including metals (stainless steel, aluminum, brass, etc.), plastics, ceramics, glass, rubber, and more. This versatility makes fiber lasers suitable for diverse industries such as automotive, aerospace, electronics, jewelry, medical devices, and packaging.

5,Non-Contact Process: Fiber laser marking is a non-contact process, meaning the laser beam does not physically touch the material being marked. This eliminates the risk of damage or distortion to delicate or sensitive surfaces, making it suitable for marking fragile or heat-sensitive materials.

6,Low Maintenance and Operating Costs: Fiber laser marking machines have a long service life and require minimal maintenance compared to other marking technologies. They have no consumables like ink or toner cartridges, reducing ongoing operating costs. Additionally, fiber lasers are highly energy-efficient, consuming less power than alternative marking methods.

7,Environmentally Friendly: Fiber laser marking is an environmentally friendly marking solution. It does not involve the use of inks, solvents, or chemicals, which eliminates the need for disposal or emissions of harmful substances. Additionally, fiber lasers consume less energy, contributing to reduced carbon footprint.

8,Easy Integration and Automation: Fiber laser marking machines can be easily integrated into existing production lines or automated systems. They offer compatibility with computer-aided design (CAD) software, allowing for seamless design transfer and automation of the marking process.

These advantages make fiber laser marking machines a popular choice for businesses seeking high-quality, efficient, and versatile marking solutions.

 

Difference from co2

The main difference between a fiber laser and a CO2 laser lies in their operating principles and the wavelength of the laser beams they produce.

1,Operating Principle:
·Fiber Laser: A fiber laser uses a doped fiber optic cable as the gain medium. The fiber is doped with rare-earth elements, such as erbium, ytterbium, or neodymium. When a pump diode or laser beam is applied to the fiber, it excites the rare-earth dopants, creating a population inversion and producing laser light.
·CO2 Laser: A CO2 laser, on the other hand, uses a gas mixture, primarily consisting of carbon dioxide, nitrogen, and helium, as the gain medium. The gas mixture is excited by an electrical discharge, causing the carbon dioxide molecules to reach an excited state and emit laser light.

2,Wavelength:
·Fiber Laser: Fiber lasers operate in the near-infrared spectrum, typically around 1,064 nanometers (nm). This wavelength is well-suited for marking and engraving metals and certain plastics. Some fiber lasers can also produce shorter wavelengths, such as 532 nm, through frequency doubling.
·CO2 Laser: CO2 lasers emit laser light at a wavelength of around 10,600 nm, falling within the far-infrared range. This wavelength is better absorbed by organic materials, non-metals, and some plastics. CO2 lasers are commonly used for cutting, engraving, and etching applications.

3,Power and Beam Quality:
·Fiber Laser: Fiber lasers typically offer higher power outputs and superior beam quality compared to CO2 lasers. They can deliver high power density and focus the laser beam to a small spot size, enabling precise and detailed markings.
·CO2 Laser: CO2 lasers usually have lower power outputs compared to fiber lasers. The beam quality of CO2 lasers is generally lower, resulting in a larger spot size and reduced precision compared to fiber lasers.

4,Application Focus:
·Fiber Laser: Fiber lasers are well-suited for marking, engraving, and annealing applications on a wide range of materials, especially metals. They are commonly used in industries such as automotive, aerospace, electronics, and jewelry.
·CO2 Laser: CO2 lasers excel in cutting, engraving, and etching applications, particularly on organic materials like wood, acrylic, leather, fabric, and paper. They find applications in industries such as signage, packaging, woodworking, and textiles.

It's important to note that these are general differences, and specific models of fiber lasers and CO2 lasers may have varying characteristics and capabilities. The choice between the two depends on the specific application requirements, material compatibility, and desired outcomes.