Laser Marking Machine

Faster Laser’s laser marking machines offer high-speed, precise marking on metals and non-metals, featuring fiber, CO2, UV, and MOPA lasers for durable, eco-friendly, and maintenance-free operation.
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Product Introduction

Laser marking machines use a focused laser beam to permanently mark, engrave, or etch text, logos, serial numbers, barcodes, and patterns onto various materials with high precision and speed. Faster Laser manufactures professional laser marking machines designed for industrial, commercial, and customized applications across multiple industries. Our machines are compatible with metals such as stainless steel, aluminum, copper, and non-metals like plastic, leather, ceramics, and glass. We offer fiber laser, CO2 laser, UV laser, and MOPA laser marking solutions to suit different materials and marking requirements. Laser marking is a non-contact, high-speed process that produces permanent, high-contrast results without using inks or consumables. It ensures low maintenance, clean operation, and environmentally friendly output. Faster Laser machines feature intelligent control systems, easy-to-use software, and robust construction for stable and reliable operation. They support a variety of marking methods including deep engraving, surface etching, black marking, and color marking (MOPA). Widely used in electronics, automotive, medical devices, tools, packaging, jewelry, and nameplate manufacturing, laser marking improves traceability, branding, and product identification. With high marking speed, repeatable accuracy, and excellent beam quality, Faster Laser’s laser marking machines deliver efficient, durable results. Choose Faster Laser for advanced marking technology that enhances your production line and product quality.

Types of Laser Marking Machines

Application of Laser Marking Machines

Laser marking machines from Faster Laser are used in a wide range of industries for permanent, high-precision marking on metals and non-metals. In the electronics industry, they are used to mark circuit boards, connectors, microchips, and housings with barcodes, serial numbers, and logos for traceability and compliance. The automotive industry uses laser marking for marking engine parts, gears, VINs, and dashboards with durable, legible identification. In the medical field, these machines are used to mark surgical instruments, implants, and medical devices with UDI codes and branding without affecting surface hygiene or integrity. The packaging industry relies on laser marking for coding expiration dates, batch numbers, and QR codes on plastic, glass, and paper packaging. In the jewelry and watch industry, laser marking machines are used for engraving fine details, serial numbers, and custom text on metals, including gold and silver. Tool and hardware manufacturers use laser marking to label wrenches, cutters, and hand tools with logos, sizes, and part numbers. The aerospace, defense, and machinery industries depend on it for high-contrast, durable marks that resist wear and corrosion. Laser marking is also widely used in consumer electronics, home appliances, gifts, and promotional items. Faster Laser’s machines ensure sharp, permanent marks with high efficiency and minimal material impact.
Laser Marking Machine Sample
Laser Marking Machine Sample
Laser Marking Machine Sample
Laser Marking Machine Sample
Laser Marking Machine Sample
Laser Marking Machine Sample
Laser Marking Machine Sample
Laser Marking Machine Sample

Why Choose Us

Faster Laser is a trusted manufacturer of professional laser marking machines built to meet the performance, reliability, and versatility demands of modern industries. We offer a wide range of laser marking solutions—fiber, CO2, UV, and MOPA—to suit different materials, applications, and production environments. Our machines are engineered for speed, accuracy, and durability, delivering high-contrast, permanent marks with minimal maintenance and no consumables. From custom batch coding to high-volume industrial engraving, Faster Laser provides tailored solutions backed by expert support, fast delivery, and ongoing service. We focus on helping our customers improve efficiency, traceability, and product branding through advanced laser technology. Whether you’re marking metals, plastics, or complex composites, Faster Laser gives you the tools to do it cleanly, efficiently, and cost-effectively.

Precision Engineering

Our machines deliver ultra-fine marking and engraving with high-speed galvanometer systems and stable laser sources for consistent, reliable output.

Wide Material Compatibility

We offer different laser types to match your needs, ensuring crisp, permanent marks on metal, plastic, wood, leather, and more.

User-Friendly Software

Intuitive control software allows easy setup, flexible design import, and precise marking even for first-time users.

Customizable Solutions

We provide machine options tailored to your product size, line speed, and marking content for seamless integration.

Low Maintenance

Our systems run cleanly with no inks or chemicals, lowering long-term operating costs and environmental impact.

Dedicated Support and Service

Faster Laser offers professional training, remote troubleshooting, and responsive service to keep your production running smoothly.

Laser Marking Machines VS Other Marking Machines

Comparison Item Laser Marking Machine Dot Peen Marking Machine Inkjet Printing Machine Stamping Machine
Marking Method Focused laser beam Mechanical pin striking Ink droplets sprayed onto surface Mechanical force using a die
Marking Speed Fast Moderate Very fast Fast
Marking Precision Very high Moderate Moderate Low to moderate
Surface Damage Risk None (non-contact) High (physical impact) None High (indentation)
Marking Durability Permanent, high resistance Permanent but shallow Temporary, can fade Permanent
Material Compatibility Metals, plastics, ceramics, glass, leather Mostly metals Paper, plastic, some metals Mostly metals and hard materials
Maintenance Requirements Low Moderate High (ink refills, nozzle cleaning) High (die wear and replacement)
Operating Cost Low (no consumables) Low High (inks, solvents) Moderate (tooling costs)
Environmental Impact Minimal, no chemicals Low High (chemical inks, VOCs) Moderate
Noise Level Low High (mechanical noise) Low High
Software Integration Excellent, supports automation and databases Limited Good Very limited
Marking Flexibility High (fonts, graphics, serials, QR codes) Low to moderate High Low
Setup Time Short Moderate Short Long (custom dies needed)
Consumables Required None No Yes (ink, solvents) Yes (dies)
Typical Applications Automotive, electronics, medical, tools, packaging Steel parts, nameplates, VINs Packaging, date codes, labels Coining, branding, heavy metal part marking

Customer Testimonials

Related Resources

Laser Marking VS Screen Printing

Laser Marking VS Screen Printing

This article explores the key differences between laser marking and screen printing, comparing their processes, advantages, disadvantages, applications, and how to choose the right method for your needs.

Frequently Asked Questions

What is Laser Marking?
Laser marking is a non-contact process that uses a focused laser beam to permanently mark or label a surface with text, serial numbers, barcodes, logos, graphics, or patterns. Unlike engraving, which removes material, laser marking typically alters the surface characteristics without significantly affecting the material’s depth or structure.
Laser marking machines direct a highly concentrated beam of light onto a specific area of the material. The heat from the beam interacts with the material in various ways, depending on the type of marking, and creates visible, permanent marks. The process is controlled with precision software for consistent and high-resolution results. Types of laser marking processes are:

  • Annealing: Heats the surface to create oxidation-based color changes, mainly used on metals like stainless steel without removing material.
  • Etching: Uses a laser to slightly melt and expand the material, creating shallow, high-contrast marks.
  • Carbonization: Removes non-carbon elements from the surface, leaving darkened marks, often on plastics and organic materials.
  • Foaming: Melts the surface to form gas bubbles, producing raised light-colored marks, usually on plastics.
  • Color Marking: Produces different hues on metals like titanium or stainless steel using precise heat control.
  • Surface Coating Removal: Strips away a surface layer (like paint or anodizing) to reveal a contrasting substrate.

Laser marking is a precise, permanent, and efficient way to mark various materials using different techniques like annealing, etching, and carbonization. It’s widely used in manufacturing, electronics, medical, and automotive industries for identification, traceability, and branding, delivering clean results without damaging the material.
Laser marking machines are powerful tools, but they are best suited for specific materials based on the wavelength and type of laser used. Here are the materials they can effectively mark and the ideal laser types for each:

  • Metals: Fiber lasers are highly effective at marking metals such as stainless steel, aluminum, copper, brass, titanium, and nickel alloys. They produce deep engravings, high-contrast annealing, and permanent etching. MOPA fiber lasers can even create color marks on stainless steel and black marks on anodized aluminum.
  • Plastics: UV lasers and MOPA fiber lasers are best suited for marking plastics like ABS, polycarbonate, polyethylene, and PVC (with caution). UV lasers use a “cold marking” process that minimizes heat damage, making them ideal for delicate or soft plastics.
  • Glass and Ceramics: UV lasers and green lasers are typically used to mark glass and ceramics. These wavelengths allow precise, crack-free engraving for decorative or industrial purposes, especially on coated or tempered surfaces.
  • Organic Materials (Wood, Leather, Paper): CO2 lasers are ideal for marking and engraving organic materials. They create dark, high-contrast marks on wood and leather, and can engrave intricate designs on paper and cardboard without contact or ink.
  • Rubber: CO2 lasers can mark laser-safe rubber to produce gaskets, seals, and stamps. However, rubbers with chlorine content should be avoided as they emit toxic gases during marking.
  • Painted or Coated Surfaces: Fiber lasers can strip coatings to expose the underlying metal, while UV lasers are used for delicate coatings. This is useful for serial number marking, logo creation, or patterning.

Laser marking machines are highly versatile and suitable for a broad range of materials when the right laser type is selected. Material compatibility and safety should always be confirmed before marking, especially for plastics and coated surfaces.
Laser marking machines are powerful tools, but their effectiveness and application range depend heavily on the laser power level selected. Here are the power options available for different types of laser marking machines and how they relate to performance and material compatibility:

  • Fiber Laser Marking Machines: Fiber lasers mark metals with high speed, precision, and durability. Available in 20W, 30W, 50W, 60W, 70W, and 100W, these machines are ideal for marking stainless steel, aluminum, brass, titanium, and other metals. Lower powers like 20W and 30W suit light engraving and small-scale tasks, while 50W-100W is better for deep engraving, high-speed production, and large marking areas.
  • CO2 Laser Marking Machines: Designed for organic and non-metallic materials, CO2 lasers are available in 30W, 60W, 100W, and 150W. These machines are commonly used to mark wood, acrylic, leather, paper, rubber, and coated ceramics. Higher powers like 100W and 150W offer deeper penetration and faster marking on thicker or denser materials, while 30W-60W is sufficient for light engraving and fine detailing.
  • MOPA Laser Marking Machines: MOPA fiber lasers provide adjustable pulse widths, enabling versatile marking effects such as black marking on anodized aluminum or color marking on stainless steel. Available in 20W, 30W, 60W, 100W, 200W, and 300W, MOPA lasers can handle both metals and certain plastics. 20W-60W models are commonly used for precision marking, while 100W and above models are ideal for high-speed production and advanced marking applications.
  • UV Laser Marking Machines: Operating at short wavelengths, UV lasers are suited for delicate and heat-sensitive materials. Power options include 3W, 5W, 10W, 12W, and 15W, making them perfect for marking plastics, glass, silicon, circuit boards, and medical devices. While 3W-5W units are used for ultra-fine marking, 10W and above provide faster speeds and improved clarity on more complex surfaces.

Laser power selection should match the material type, desired marking depth, production volume, and quality requirements. Higher wattages offer better speed and deeper marking, while lower powers are better suited for fine, detailed, or temperature-sensitive work.
Laser marking machines are powerful tools, but effective thermal management is essential to ensure long-term reliability and consistent marking performance. Here are the main cooling methods used in laser marking systems:

  • Air Cooling: Many low- to mid-power laser marking machines, especially fiber and UV models up to 50W, use air cooling. These systems rely on built-in fans and heat sinks to dissipate heat from the laser source and electronics. They are simple, compact, and maintenance-friendly. However, their cooling capacity is limited, making them unsuitable for high-power or continuous-duty applications.
  • Water Cooling: For high-power systems such as 60W-300W MOPA fiber lasers, 100W+ CO2 lasers, or 10W+ UV lasers, water cooling is the preferred solution. A closed-loop water chiller circulates coolant through the laser source, efficiently removing heat and maintaining a stable operating temperature. This system allows for prolonged, high-performance operation and is essential in industrial environments where laser uptime and thermal consistency are critical.

Laser marking machines maintain optimal performance through either air or water cooling, depending on power level and usage intensity. Proper cooling not only protects the internal components but also ensures clean, consistent, and high-speed marking results.
Laser marking machines are powerful tools, but they also emit intense laser radiation that can be hazardous to the eyes. Here is when and why laser safety glasses are necessary during operation:

  • Fiber Lasers (1064 nm): Fiber lasers mark metals with high-energy infrared beams that are invisible to the human eye. Even brief exposure to the direct beam or a reflection from metal surfaces can cause permanent retinal damage. Laser safety glasses rated for 1064 nm with an appropriate Optical Density (OD) are required when operating open-frame fiber laser marking machines or during maintenance and alignment.
  • CO2 Lasers (10.6 µm): CO2 lasers emit far-infrared radiation that can damage the cornea and lens of the eye. While most CO2 laser marking systems are enclosed for safety, protective eyewear rated for 10.6 µm is still necessary if the system is open, lacks shielding, or is undergoing service.
  • UV Lasers (355 nm): Ultraviolet lasers can cause photochemical damage to both the cornea and retina. Because UV light is invisible and potentially more harmful due to short-wavelength energy absorption, laser safety glasses that block UV wavelengths are essential for safe operation.
  • Green Lasers (532 nm): Visible green laser beams can cause flash blindness and severe eye injury if viewed directly. Although the wavelength is visible, safety glasses specific to 532 nm are mandatory for exposed-beam operations.
  • Enclosed Systems: For fully enclosed laser marking machines rated as Class 1 systems, where no laser radiation escapes during operation, safety glasses may not be required during normal use. However, they are still mandatory when the enclosure is open for maintenance or troubleshooting.

Laser safety glasses are critical for protecting your eyes from both direct and reflected laser radiation. Always use eyewear rated for the correct wavelength and optical density of your machine. Compliance with ANSI Z136.1 or EN 207/208 safety standards is essential for safe operation in any laser marking environment.
Laser marking machines are powerful tools, but their ability to operate effectively relies heavily on the file formats they support. These machines use specialized software to interpret graphic data, control laser movement, and execute precise marking tasks. Here are the file formats they can effectively handle:

  • Vector Files: Laser marking machines often use vector paths for precise outlines, logos, and barcodes. Supported vector file formats typically include DXF, PLT, AI, SVG, and EPS. These formats are ideal for scaling without losing quality, and are widely used in engineering, product branding, and label design.
  • Raster/Bitmap Files: For photo engraving or grayscale artwork, common raster image formats such as BMP, JPG, PNG, and GIF are supported. These are best for laser-engraved portraits, textured surfaces, or detailed branding marks, but may require image processing for optimal clarity.
  • Text and Data Files: For automated serial numbers, barcodes, and variable data, formats like TXT, CSV, and Excel (XLS/XLSX) are commonly used. These allow the software to import text strings, batch data, or sequences for industrial identification and traceability.
  • CAD and Technical Files: In manufacturing and engineering contexts, laser marking machines may also support DWG, STEP, and IGES files. These are useful when marking precise technical outlines or mechanical parts.

Laser marking software—such as EZCAD, LightBurn, or proprietary OEM platforms—allows users to import and manipulate these files for clean, accurate results. Before importing, it’s essential to confirm compatibility and ensure the graphic is appropriately prepared for vector or raster-based marking.
Laser marking machines are powerful tools, but they are best known for producing extremely durable marks that are highly resistant to environmental and mechanical stress. Here is how laser marking holds up against solvents and abrasion:

  • Solvent Resistance: Laser marking changes the surface of the material itself—by engraving, annealing, foaming, or carbonizing—rather than applying an external ink or coating. Because of this, the resulting marks are highly resistant to alcohol, acetone, oils, and most industrial cleaning agents. On metals and many plastics, laser marks do not fade or dissolve even after repeated exposure to solvents, making them ideal for medical instruments, aerospace parts, and food processing equipment where regular sterilization is required.
  • Abrasion Resistance: Laser marking produces permanent identification by modifying or removing material, which means the mark is embedded into the surface. This process ensures high durability even when the part is subjected to mechanical wear, vibration, or frequent handling. Marks created by fiber lasers on stainless steel or aluminum, for example, can endure scraping, scratching, and abrasion without losing readability or contrast.

Laser marking machines are highly valued for producing permanent, solvent-proof, and wear-resistant markings, making them the go-to solution for traceability and branding in industries like automotive, electronics, defense, and heavy manufacturing. However, the level of resistance depends on factors like material type, marking depth, and laser parameters, so process optimization is key to achieving the best results.
Laser marking machines are powerful tools, but they can generate fumes during operation depending on the material being marked and the marking method used. Here are the materials that are most likely to produce fumes and how they should be handled:

  • Plastics: Many plastics—including ABS, polycarbonate, acrylic, and polyethylene—release visible fumes and potentially harmful gases when laser marked. These fumes may contain volatile organic compounds (VOCs), and in some cases (such as with PVC), toxic substances like chlorine gas. PVC should never be marked unless proper exhaust and filtration systems are in place and the material is verified as laser-safe.
  • Painted and Coated Surfaces: When marking coated metals or painted surfaces, the laser burns off the top layer, producing smoke and chemical fumes that can include solvents, pigments, and heavy metals. These emissions require active fume extraction to protect both operators and equipment.
  • Rubber and Synthetic Materials: Laser-safe rubbers may be marked with minimal risk, but many rubber products—especially those containing chlorine or sulfur compounds—emit strong odors and hazardous gases when ablated by a laser. Always verify the composition before marking.
  • Organics (Wood, Leather, Paper): Natural materials emit smoke, soot, and particulate matter during marking. While not always toxic, these fumes can irritate the respiratory system and cloud the laser optics. Air assist and fume extraction are recommended for clean operation.
  • Metals (Minimal Fumes): Bare metals like stainless steel and aluminum typically do not emit significant fumes when laser marked through annealing or etching. However, coated or anodized metals may release particles or vapors, especially if the coating is burned away.

Laser marking machines should always be used with proper ventilation or a fume extraction system, especially when processing materials known to release gases or particulates. Not only does this protect the operator’s health, but it also maintains the cleanliness of the laser optics and the precision of the marking process.

Get Laser Marking Solutions

Ready to improve your product identification, traceability, and branding with fast, clean, and permanent marking solutions? Faster Laser’s professional laser marking machines are built to deliver unmatched precision, speed, and durability across a wide range of materials and industries. Whether you’re working with metals, plastics, ceramics, or composites, our machines provide high-contrast, wear-resistant marks without contact, consumables, or downtime. We offer fiber, CO2, UV, and MOPA laser systems tailored to meet your specific application needs—be it serial numbers, barcodes, logos, or QR codes. Backed by expert support, user-friendly software, and reliable performance, Faster Laser helps you streamline production, reduce maintenance, and boost product quality. Contact us today for a free consultation, demo, or quote. Our team will help you choose the right laser marking solution for your industry, materials, and budget. Let Faster Laser be your trusted partner in advanced marking technology.
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