Product Introduction
Types of 100W Fiber Laser Marking Machines
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Desktop Fiber Laser Marking Machine
Rated 4.50 out of 5$2,000.00 – $20,200.00Price range: $2,000.00 through $20,200.00 This product has multiple variants. The options may be chosen on the product page -

Handheld Fiber Laser Marking Machine
Rated 5.00 out of 5$2,150.00 – $20,350.00Price range: $2,150.00 through $20,350.00 This product has multiple variants. The options may be chosen on the product page -

Split Fiber Laser Marking Machine
Rated 4.75 out of 5$2,000.00 – $20,200.00Price range: $2,000.00 through $20,200.00 This product has multiple variants. The options may be chosen on the product page -

Enclosed Fiber Laser Marking Machine
Rated 5.00 out of 5$12,200.00 – $20,900.00Price range: $12,200.00 through $20,900.00 This product has multiple variants. The options may be chosen on the product page -

Flying Fiber Laser Marking Machine
Rated 4.75 out of 5$3,300.00 – $21,500.00Price range: $3,300.00 through $21,500.00 This product has multiple variants. The options may be chosen on the product page -

Screw Drive Fiber Laser Marking Machine
Rated 4.75 out of 5$7,700.00 – $27,000.00Price range: $7,700.00 through $27,000.00 This product has multiple variants. The options may be chosen on the product page -

Rack Drive Fiber Laser Marking Machine
Rated 4.50 out of 5$7,800.00 – $26,800.00Price range: $7,800.00 through $26,800.00 This product has multiple variants. The options may be chosen on the product page
Laser Marking Capabilities
| Material | 20W | 30W | 50W | 60W | 70W | 100W |
|---|---|---|---|---|---|---|
| Stainless Steel (304/316) | Surface Mark; Black/Anneal | Surface Mark; Black/Anneal | Surface Mark; Black/Anneal; Shallow Engrave | Surface Mark; Black/Anneal; Shallow Engrave | Surface Mark; Black/Anneal; Shallow Engrave | Surface Mark; Black/Anneal; Shallow Engrave; deep relief |
| Carbon Steel (Mild) | Surface Mark | Surface Mark; Shallow Engrave | Surface Mark; Shallow Engrave | Surface Mark; Shallow Engrave | Surface Mark; Shallow Engrave | Surface Mark; Shallow Engrave; deep relief |
| Tool Steel (HRC ≤55) | Surface Mark | Surface Mark; Shallow Engrave | Surface Mark; Shallow Engrave | Surface Mark; Shallow Engrave | Surface Mark; Shallow Engrave | Surface Mark; Shallow Engrave; deep relief |
| Tool Steel (HRC 55–60) | Surface Mark | Surface Mark | Surface Mark; Shallow Engrave | Surface Mark; Shallow Engrave | Surface Mark; Shallow Engrave | Surface Mark; Shallow Engrave (slow) |
| Titanium & Ti Alloys | Surface Mark; Black/Anneal (color) | Surface Mark; Black/Anneal | Surface Mark; Black/Anneal | Surface Mark; Black/Anneal | Surface Mark; Black/Anneal | Surface Mark; Black/Anneal |
| Nickel Alloys / Inconel | Surface Mark | Surface Mark; Shallow Engrave | Surface Mark; Shallow Engrave | Surface Mark; Shallow Engrave | Surface Mark; Shallow Engrave | Surface Mark; Shallow Engrave; deep relief |
| Aluminum (Anodized) | fast Coating Removal (Surface Mark) | Coating Removal | Coating Removal | Coating Removal | Coating Removal | Coating Removal |
| Aluminum (Bare) | Surface Mark (MOPA Recommended) | Surface Mark; Shallow Engrave (MOPA Recommended) | Surface Mark; Shallow Engrave | Surface Mark; Shallow Engrave | Surface Mark; Shallow Engrave | Surface Mark; Shallow Engrave; deep relief |
| Brass | Surface Mark | Surface Mark; Shallow Engrave | Surface Mark; Shallow Engrave | Surface Mark; Shallow Engrave | Surface Mark; Shallow Engrave | Surface Mark; Shallow Engrave; deep relief |
| Copper | Surface Mark (MOPA Recommended) | Surface Mark; Shallow Engrave (MOPA Recommended) | Surface Mark; Shallow Engrave | Surface Mark; Shallow Engrave | Surface Mark; Shallow Engrave | Surface Mark; Shallow Engrave; deep relief |
| Galvanized Steel | Surface Mark (Manage Zinc Fumes) | Surface Mark | Surface Mark | Surface Mark | Surface Mark | Surface Mark |
| Zinc-/Chrome-Plated Steel | Coating Ablation (Surface Mark) | Coating Ablation | Coating Ablation | Coating Ablation | Coating Ablation | Coating Ablation |
| Black Oxide/Phosphate Coat | Surface Mark; Black/Anneal | Surface Mark; Black/Anneal | Surface Mark; Black/Anneal | Surface Mark; Black/Anneal | Surface Mark; Black/Anneal | Surface Mark; Black/Anneal |
| Painted/Powder-Coated Metals | Coating Ablation (Surface Mark) | Coating Ablation | Coating Ablation | Coating Ablation | Coating Ablation | Coating Ablation |
| Hard Plastics (ABS/PC/PA)* | Surface Mark (MOPA; Laser-Markable Grades) | Surface Mark (MOPA; Laser-Markable Grades) | Surface Mark (MOPA; Laser-Markable Grades) | Surface Mark (MOPA; Laser-Markable Grades) | Surface Mark (MOPA; Laser-Markable Grades) | Surface Mark (MOPA; Laser-Markable Grades) |
| POM/PE/PP (Additive-Filled)* | Surface Mark (Additive-Filled; MOPA Recommended) | Surface Mark (Additive-Filled; MOPA Recommended) | Surface Mark (Additive-Filled) | Surface Mark (Additive-Filled) | Surface Mark (Additive-Filled) | Surface Mark (Additive-Filled) |
| CFRP/GFRP Composites | resin Surface Mark | resin Surface Mark | resin Surface Mark | resin Surface Mark | resin Surface Mark | resin Surface Mark |
| Ceramics (With Marking Paste) | Shallow Engrave (With Paste) | Shallow Engrave (With Paste) | Shallow Engrave; Surface Mark (With Paste) | Shallow Engrave; Surface Mark (With Paste) | Shallow Engrave; Surface Mark (With Paste) | Shallow Engrave; Surface Mark (With Paste) |
| Glass (With Marking Paste) | Shallow Engrave (With Paste) | Shallow Engrave (With Paste) | Shallow Engrave; Surface Mark (With Paste) | Shallow Engrave; Surface Mark (With Paste) | Shallow Engrave; Surface Mark (With Paste) | Shallow Engrave; Surface Mark (With Paste) |
| Wood/Leather (Organics) | Mot Recommended (use CO₂ laser) | Mot Recommended | Mot Recommended | Mot Recommended | Mot Recommended | Mot Recommended |
| PVC | Mot Recommended (toxic fumes) | Mot Recommended | Mot Recommended | Mot Recommended | Mot Recommended | Mot Recommended |
Compatible Materials
- Stainless Steel
- Carbon Steel
- Mild Steel
- Alloy Steel
- Aluminum
- Anodized Aluminum
- Brass
- Copper
- Bronze
- Titanium
- Tungsten
- Nickel
- Nickel Alloys
- Zinc
- Chrome
- Gold
- Silver
- Platinum
- Palladium
- Iron
- Magnesium
- Carbide
- Cobalt
- Inconel
- Lead
- Tin
- Galvanized Metals
- Powder-Coated Metals
- Painted Metals
- Stainless Steel with Mirror Finish
- Hard Plastics
- PEEK
- Nylon
- Polycarbonate
- Acrylic
- Epoxy Resin
- Ceramic
- Silicone
- Leather
- Some Stone Surfaces
Application of 100W Fiber Laser Marking Machines
Customer Testimonials
Comparison VS Other Marking Technologies
| Comparison Item | Fiber Laser Marking | Dot Peen Marking | Inkjet Printing | Chemical Etching |
|---|---|---|---|---|
| Marking Speed | Very fast; high throughput suitable for automation | Moderate; mechanical movement limits speed | Fast, but limited by drying time | Slow; multi-step chemical process |
| Marking Quality | Extremely precise, clean, and high contrast | Medium; mechanical impact causes rough marks | Good, but can smear or fade | Good, but depends on chemical consistency |
| Material Compatibility | Works on most metals, plastics, ceramics | Mainly metals | Works on metals, plastics, paper | Mostly metals and coated surfaces |
| Permanence | Permanent and wear-resistant | Permanent but can be affected by corrosion | Temporary; can fade over time | Permanent if surface is properly treated |
| Surface Damage | Non-contact; no physical damage | Causes indentation and vibration | None | Can affect surface coating or finish |
| Precision on Small Parts | Excellent for micro-marking | Limited precision | Moderate; depends on nozzle resolution | Good, but less controllable |
| Maintenance Requirements | Very low; no consumables | Regular pin and stylus replacement | Frequent ink and nozzle maintenance | Chemical disposal and tank cleaning needed |
| Operating Cost | Low after purchase; no consumables | Low to moderate; mechanical wear parts | High; ink and solvent costs | Moderate; chemicals and waste handling |
| Environmental Impact | Clean and eco-friendly | Minimal | Uses solvents and produces emissions | Generates chemical waste |
| Noise Level | Silent operation | Noisy (mechanical impact) | Quiet | Silent |
| Integration in Production Lines | Easily automated with software and robotics | Possible, but slower cycle time | Easy to integrate | Difficult; manual process |
| Marking Depth Control | Fully adjustable via software | Fixed by stylus pressure | Not applicable | Limited by etching duration |
| Suitable for 2D/QR Codes | Excellent; sharp, high-resolution marks | Poor readability | Limited durability | Not suitable for fine codes |
| Lifespan of Equipment | 100,000+ hours of laser life | Moderate; mechanical wear parts | Moderate; ink system replacements | Limited by corrosion of tanks and tools |
| Overall Marking Consistency | Excellent; repeatable, distortion-free | Inconsistent on uneven surfaces | Affected by ink flow and surface texture | Variable; depends on chemical balance |
Why Choose Us
High Precision
Our machines deliver sharp, detailed markings with excellent contrast, suitable for complex patterns and small components across metal, plastic, and other materials.
Fast Processing
Designed for speed and efficiency, our systems complete marking tasks quickly without compromising quality, making them ideal for high-volume production environments.
Low Maintenance
With durable components and minimal consumables, our machines offer stable long-term performance, reducing downtime and keeping operating costs low.
Flexible Solutions
We provide a variety of models and customization options to suit different materials, marking needs, and production setups, ensuring the right fit for your business.
Related Resources

How Accurate Is Laser Marking
This article explores how laser marking achieves superior precision, the factors that influence this precision, and how various industries ensure consistent, high-quality, and permanent markings.

How To Maintain Laser Marking Machines
This article provides a comprehensive guide to maintaining your laser marking machine, including cleaning, inspection, cooling system care, and troubleshooting to ensure consistent operation and durability.

How To Choose Laser Marking Machines
A comprehensive guide to selecting the right laser marking machine—covering materials, mark quality, laser types, software, integration, compliance, and total cost of ownership.

What Are The Common Defects In Laser Marking
This article explores common defects in laser marking, including causes, prevention strategies, and solutions to ensure high-quality, consistent results in various manufacturing applications.
Frequently Asked Questions
What Models Are Available For 100W Fiber Laser Marking Machines?
- Desktop Models: Compact and robust, desktop 100W fiber lasers offer superior marking precision for small- to medium-sized parts. They excel in engraving serial numbers, barcodes, or deep metal logos with consistent power and high speed.
- Portable Models: Built for flexibility, portable 100W fiber laser marking systems provide the same engraving strength as desktops but with enhanced mobility. They’re ideal for marking large, stationary items such as engines, tools, or fabricated components directly on-site.
- Handheld Models: Designed for heavy, oversized, or irregular objects, handheld 100W fiber lasers enable deep engraving and fast marking without moving the workpiece. Their power makes them ideal for industrial machinery, automotive frames, and structural steel.
- Fully Enclosed Systems: Featuring laser-proof enclosures, filtered ventilation, and observation windows, these machines prioritize operator safety and environmental cleanliness. They are well-suited for precision industries, laboratories, and high-standard production lines.
- Flying Fiber Lasers: Integrated into automated conveyor systems, flying 100W fiber lasers perform continuous, high-speed marking on moving parts—such as pipes, packaging, or electronic housings—ensuring accurate, on-the-fly results.
- Large-Area Screw-Drive Systems: Utilizing precision ball-screw motion, these systems maintain micron-level accuracy across large engraving surfaces. The 100W power enables deep, uniform engraving for molds, industrial nameplates, and complex metal panels.
- Large-Area Open Rack-Drive Systems: Designed for large-scale production, these rack-driven models emphasize accessibility and efficiency. Their open frame allows quick part loading, making them ideal for marking big components or batch engraving tasks.
How Much Do 100W Fiber Laser Marking Machines Cost?
- Desktop Models ($3900–4500): Compact yet powerful, these systems offer exceptional stability and precision for marking metals, plastics, and coated parts. They’re ideal for workshops or small factories requiring consistent, high-quality engraving.
- Portable Models ($3900–4500): Built for mobility, portable 100W fiber lasers deliver the same marking capability as desktop units but allow operators to work across multiple locations. Perfect for marking large components that cannot be easily moved.
- Handheld Units ($4100–4500): Designed for heavy or irregularly shaped workpieces, handheld 100W fiber laser marking machines produce deep, permanent engravings on steel, aluminum, and other industrial metals. The higher power ensures faster marking and stronger contrast.
- Fully Enclosed Systems ($4600–5000): These include sealed housings, laser-safe glass, and integrated filtration systems for safety and cleanliness. They meet strict laser protection standards, making them suitable for precision manufacturing and research labs.
- Flying Fiber Lasers ($5200–5600): Integrated into conveyor or robotic production lines, flying 100W fiber laser marking systems enable high-speed, continuous marking on moving items such as cables, electronic parts, and packaging. The strong power ensures excellent clarity even at high throughput.
- Large-Area Screw-Drive Systems ($8200–10800): Equipped with precision ball-screw motion control, these models achieve ultra-smooth engraving over large areas. They’re widely used for mold engraving, industrial plates, or deep metal etching that requires uniform depth.
- Large-Area Open Rack-Drive Systems ($9300–9800): Designed for large-scale marking or batch engraving, these rack-driven units emphasize accessibility and speed. The open-frame structure simplifies the loading and unloading of oversized materials.
What Is The Marking Speed Of 100W Fiber Laser Marking Machines?
- Standard Marking Speed: 100W fiber laser marking machines can achieve speeds of up to 8,000–10,000mm/s under optimal conditions. This high-speed performance is primarily due to the powerful laser source and advanced galvanometer (galvo) scanning head, which allows for rapid beam movement across the work surface.
- Shallow Marking and Surface Etching: For surface engraving, logo marking, serial numbers, and barcodes, the laser can operate near its maximum speed. The 100W laser’s high frequency enables fast energy pulses, resulting in clean, high-contrast marks even at top speed. This makes it ideal for industries requiring fast throughput, such as electronics, tools, or automotive part marking.
- Deep Engraving and Metal Removal: When performing deep engraving on metals like stainless steel, aluminum, or titanium, marking speed typically ranges between 1,000–3,000mm/s, depending on the required depth and repetition rate. The higher power of the 100W laser allows for faster material ablation than lower-power models (e.g., 30W or 50W), reducing overall processing time significantly.
- High-Speed Applications: For production line integration, the 100W fiber laser’s marking speed ensures compatibility with inline or conveyor systems, maintaining real-time marking without slowing down manufacturing flow. It is also suitable for batch marking of multiple workpieces simultaneously when paired with automated fixtures or rotary tables.
What Problems Might Occur When Using 100W Fiber Laser Marking Machines?
- Beam Quality Degradation: Over time, contaminants such as dust or oil mist can accumulate on the laser lens or galvanometer mirrors, leading to distorted beam focus or uneven marking intensity. This results in blurry, shallow, or inconsistent marks. Regular cleaning of optical components with approved lens wipes and maintaining a clean workspace can prevent this issue.
- Power Instability: If the laser power source or fiber module becomes unstable due to electrical fluctuations or overheating, users may experience variations in marking depth or clarity. This is often caused by inadequate ventilation or improper cooling of the laser cabinet. Ensuring a consistent power supply and optimal cooling prevents thermal drift and protects internal components.
- Incorrect Focusing: Improper focal distance adjustment can lead to out-of-focus marking, resulting in faded or incomplete engravings. Operators must confirm the correct focal length for each lens (typically 160mm for 110×110mm fields and 254mm for 200×200mm fields) before marking.
- Excessive Heat Build-Up: During deep engraving or high-speed marking, the workpiece may absorb too much heat, causing metal warping, discoloration, or surface oxidation. Proper parameter tuning—especially pulse frequency and marking speed—helps control thermal load while maintaining engraving depth.
- Galvanometer (Scanner) Errors: The galvo head controls laser movement across the marking field. If the scanner mirrors are misaligned or the control board malfunctions, distorted patterns or skewed marks may appear. Regular calibration and avoiding shock or vibration protect these precision components.
- Software or Communication Issues: Marking software like EZCAD can sometimes freeze or lose connection with the laser controller, especially when using outdated drivers or unstable USB interfaces. Regularly updating software and firmware minimizes such interruptions.
- Material-Specific Problems: Reflective metals such as copper, brass, or gold can cause back-reflection, potentially damaging the laser source. Applying marking sprays or coatings can help absorb laser energy and protect the optics. Additionally, marking plastics without verifying laser compatibility can produce harmful fumes or incomplete marks.
What Is The Service Life Of 100W Fiber Laser Marking Machines?
- Laser Source Lifespan: The core component of 100W fiber laser marking machines is their fiber laser source, typically manufactured by brands such as Raycus, MAX, or IPG. These sources have an average lifespan of 100,000 hours, equivalent to more than 10 years of continuous operation under standard industrial workloads. Unlike CO2 or YAG lasers, fiber lasers do not require frequent replacement of lamps or mirrors, significantly reducing downtime and maintenance costs.
- Optical System Durability: The galvanometer scanner, lenses, and optical mirrors are built for high-speed operation and can last many years with routine cleaning and proper environmental control. However, dust accumulation or mechanical shock can degrade performance over time. Regular inspection and cleaning extend their service life to around 5–8 years without major replacement.
- Electronic and Mechanical Components: The power supply, control board, and marking head typically last 8–10 years, depending on environmental stability and workload intensity. Components housed in well-ventilated, low-humidity environments will naturally last longer than those exposed to temperature fluctuations or vibration.
- Cooling and Environmental Conditions: Unlike CO2 laser marking systems, fiber lasers are air-cooled, which simplifies operation and reduces wear on internal components. However, maintaining clean airflow and stable ambient temperatures (10–35℃) is vital for ensuring longevity. Machines used in harsh or dusty factory conditions may experience reduced life if not properly protected.
- Software and System Updates: The EZCAD or JCZ control software used in fiber laser marking machines is virtually maintenance-free, though occasional updates improve stability and compatibility. Proper data management and calibration settings help avoid unnecessary stress on hardware components.
What Training Is Required To Operate 100W Fiber Laser Marking Machines?
- Basic Machine Familiarization: Operators should begin with a comprehensive understanding of the machine’s components — including the laser source, galvanometer head, control board, power supply, and marking table. Knowing the function of each part helps users perform basic troubleshooting and ensures correct startup and shutdown procedures. Training typically covers how to safely power the machine, adjust focus, and use the marking software interface.
- Software Operation (EZCAD or Equivalent): The most commonly used control software for fiber laser systems is EZCAD. Operators must learn to import vector files (DXF, PLT, AI), set up marking paths, and configure parameters such as power, frequency, speed, and line spacing. Training should also include file layering, marking sequence optimization, and parameter presets for different materials like stainless steel, aluminum, or plastics.
- Laser Safety and PPE Use: Because fiber lasers emit invisible near-infrared light (typically 1064 nm), operators must be trained in laser safety classifications and required personal protective equipment (PPE). This includes laser safety glasses rated for the machine’s wavelength, protective enclosures, and proper ventilation practices to avoid exposure to fumes.
- Focus and Alignment Techniques: Accurate focusing is critical for marking quality. Training should teach operators how to adjust the focal height using dual red-dot focusing systems or manual measurement tools. Users must also learn how to align the laser field lens to ensure the marking area (e.g., 110×110mm or 200×200mm) is properly calibrated and distortion-free.
- Material Characteristics and Parameter Adjustment: Operators should understand how different materials react to laser energy — for example, metals require higher power and slower speeds for deep engraving, while plastics need lower power and higher frequency to prevent burning. Training should emphasize experimental parameter testing and saving successful profiles for consistent results.
- Routine Maintenance and Troubleshooting: Training should also cover daily maintenance such as cleaning lenses, checking optical paths, and ensuring proper airflow and ventilation. Common troubleshooting steps — like addressing weak marks, misaligned beams, or inconsistent power — help minimize downtime and reduce reliance on external service calls.
What PPE Is Required When Operating 100W Fiber Laser Marking Machines?
- Laser Safety Glasses: The most critical PPE for operators of fiber laser marking machines is laser safety eyewear rated for the 1064 nm wavelength, which is the operating range of most fiber lasers. Unlike visible light, the fiber laser beam is invisible and can cause permanent eye damage even from scattered reflections. Operators should always wear certified OD6+ (Optical Density 6 or higher) laser protection glasses that comply with standards such as EN 207 / ANSI Z136.1.
- Protective Gloves: When handling marked parts or working near the laser head, operators should wear heat-resistant and cut-resistant gloves. During deep engraving or high-power marking, metal workpieces can become hot enough to cause burns. Gloves also protect hands from sharp edges or burrs on finished metal parts.
- Respiratory Protection: Laser marking certain plastics, coatings, or anodized metals can release toxic fumes or fine particulates. A local exhaust ventilation system or fume extractor should always be installed near the marking area. In environments with inadequate ventilation, operators should wear N95 or higher-rated respirators to avoid inhaling airborne contaminants.
- Hearing Protection: While fiber laser marking machines themselves operate quietly, auxiliary systems such as fume extractors, air compressors, or cooling fans can produce continuous noise above 80 dB. Wearing earplugs or earmuffs can help maintain comfort and prevent long-term hearing fatigue in industrial settings.
- Protective Clothing: Operators should wear non-reflective, flame-retardant clothing made from natural fibers such as cotton to minimize the risk of reflection and ignition. Avoid bright or metallic clothing that could reflect the laser beam. Long sleeves and closed-toe shoes are recommended to protect skin from incidental exposure or debris.
- Face Shields and Enclosures (Optional): When operating in open or semi-enclosed environments, additional protection such as a transparent laser-safe face shield or a fully enclosed laser workstation is highly recommended. Enclosures not only improve safety but also contain dust and fumes more effectively.
How Should 100W Fiber Laser Marking Machines Be Maintained?
- Optical Components: The lens, field lens, and galvanometer mirrors are the most sensitive optical parts of a fiber laser marking machine. They should be inspected daily for dust, fingerprints, or debris. Use a non-abrasive lens cleaning paper and alcohol solution (≥99% isopropyl alcohol) to gently clean optical surfaces. Avoid direct contact with fingers, as oil contamination can damage the coating and reduce marking precision.
- Laser Source and Cooling System: Although the fiber laser source is air-cooled and requires little direct maintenance, it must operate in a well-ventilated, temperature-stable environment (10–35℃). Ensure air vents are unobstructed and fans are free of dust buildup. Every few weeks, use compressed air to clean internal air filters or cooling channels to prevent overheating, which could shorten the life of the laser diode module.
- Galvanometer Scanner and Marking Head: The galvanometer mirrors inside the scanning head move rapidly during operation. Dust or vibration can cause drift or positioning errors. Periodically check that the scanner head is securely fastened, and avoid touching the mirror surfaces. For high-use environments, a light dust cover over the marking area can protect the optical path from airborne particles.
- Electrical and Control Components: Inspect cables, connectors, and grounding points monthly to ensure they remain tight and corrosion-free. Sudden voltage fluctuations can affect the control board or power supply, so using a voltage stabilizer or surge protector is strongly recommended. Software settings should be backed up regularly to prevent data loss in case of system resets.
- Work Table and Fixtures: Clean the marking table and any jigs or fixtures after each session. Metal dust, grease, or debris can interfere with focusing accuracy and lead to inconsistent results. Check that the work platform is level and that the focusing system (manual or automatic) moves smoothly without obstruction.
- Exhaust and Fume Extraction: During long marking sessions, fumes or fine particles can accumulate around the marking area, especially when processing coated or painted materials. The fume extraction system should be inspected weekly, and filters replaced as needed to maintain proper airflow and ensure a clean working environment.
- Software and Calibration: Calibrate the marking area periodically using EZCAD’s field correction or the manufacturer’s software tools to maintain alignment between the laser output and the physical workspace. Keep the software updated and verify that marking parameters are correctly saved to avoid output deviations.





