FY-LMM01
FY-LMM01 Floor-Standing Laser Marking Machine
Match the equipment to the material, part and production workflow.
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Fiber Laser Marking Machines for Metal and Production Parts
FYXFER fiber laser marking machines are configured for permanent identification, surface marking and engraving on metals and selected industrial plastics. Common power options range from 20W to 120W, but power alone does not determine the result. We match the source, lens, working field, machine format, fixture, software and safety arrangement to your material, mark and production workflow.
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Fiber Laser Marking Machines for Metal and Production Parts
Material.
Result.
Configuration.
01 / FYXFER
Machine formats
Match the equipment to the material, part and production workflow.
FY-LMM02
FY-LMM02 Desktop Laser Marking & Engraving Machine
Match the equipment to the material, part and production workflow.
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FY-LMM03
FY-LMM03 Split Desktop Laser Marking Machine
Match the equipment to the material, part and production workflow.
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Machine & details
Confirm the final equipment and configuration in the quotation.
Serial numbers and traceability codes
Apply part numbers, date codes, barcodes, QR codes and data-matrix codes to production components. Code size, readability target, content source and verification method should be defined before configuration.
Logos and high-contrast marks
Create logos, scales, labels and identification graphics through surface change, annealing or coating removal where the material supports the required effect.
Engraving and material removal
Fiber systems can be evaluated for visible engraving depth on suitable metals. Required depth, filled area, edge quality and cycle target affect the appropriate power and process strategy.
02 / Selection guide
Choose around your application
Match the equipment to the material, part and production workflow.
Typical materials and fiber laser results
Typical materials and fiber laser results
Fiber technology is a practical starting point for stainless steel, carbon steel, aluminum, brass, copper alloys, coated metals and selected engineered plastics. Alloy, coating, color, additives and surface finish can change the process window, so representative sample testing is recommended when contrast, depth or code quality is critical.
View details
Fiber technology is a practical starting point for stainless steel, carbon steel, aluminum, brass, copper alloys, coated metals and selected engineered plastics. Alloy, coating, color, additives and surface finish can change the process window, so representative sample testing is recommended when contrast, depth or code quality is critical.
See more use cases on our laser marking applications page.
Serial numbers and traceability codes
Apply part numbers, date codes, barcodes, QR codes and data-matrix codes to production components. Code size, readability target, content source and verification method should be defined before configuration.
Logos and high-contrast marks
Create logos, scales, labels and identification graphics through surface change, annealing or coating removal where the material supports the required effect.
Engraving and material removal
Fiber systems can be evaluated for visible engraving depth on suitable metals. Required depth, filled area, edge quality and cycle target affect the appropriate power and process strategy.
01
Typical materials and fiber laser results
Confirm the selected equipment, fixtures, utilities, installation needs and supply scope before ordering.
See fiber laser sample demonstrations
See fiber laser sample demonstrations
View details
Photo engraving on a pendant
See a portrait engraved on a pendant. Image preparation, surface finish and marking settings influence detail and contrast.
A simple cutout in a thin can lid
A small sample demonstration of a cutout in a thin metal can lid. Capability depends on the laser configuration, material, thickness and process; this does not establish sheet-metal production cutting capacity.
02
See fiber laser sample demonstrations
Confirm the selected equipment, fixtures, utilities, installation needs and supply scope before ordering.
How to choose between 20W and 120WDiscuss my application ↗
How to choose between 20W and 120W
Lower-power configurations are commonly evaluated for routine surface identification and detailed marks. Mid-range and higher-power systems may provide a more suitable process window for deeper engraving, larger filled areas or shorter cycle targets. The correct choice still depends on the alloy, marking field, lens, artwork and acceptance standard; a higher wattage does not automatically produce a better mark.
View details
Lower-power configurations are commonly evaluated for routine surface identification and detailed marks. Mid-range and higher-power systems may provide a more suitable process window for deeper engraving, larger filled areas or shorter cycle targets. The correct choice still depends on the alloy, marking field, lens, artwork and acceptance standard; a higher wattage does not automatically produce a better mark.
Send the smallest feature, largest filled area, required depth or contrast, part dimensions and expected output. FYXFER can then define which powers should be included in sample testing.
For broader pulse-width control, compare our MOPA laser marking machines .
If the requirement is a dark stainless-steel mark, compare standard fiber and MOPA on the actual part . Record surface finish, contrast, heat effect and accepted output to decide whether additional pulse control is useful.
03
How to choose between 20W and 120W
Confirm the selected equipment, fixtures, utilities, installation needs and supply scope before ordering.
Typical materials and fiber laser results
Fiber technology is a practical starting point for stainless steel, carbon steel, aluminum, brass, copper alloys, coated metals and selected engineered plastics. Alloy, coating, color, additives and surface finish can change the process window, so representative sample testing is recommended when contrast, depth or code quality is critical.
See more use cases on our laser marking applications page.
Serial numbers and traceability codes
Apply part numbers, date codes, barcodes, QR codes and data-matrix codes to production components. Code size, readability target, content source and verification method should be defined before configuration.
Logos and high-contrast marks
Create logos, scales, labels and identification graphics through surface change, annealing or coating removal where the material supports the required effect.
Engraving and material removal
Fiber systems can be evaluated for visible engraving depth on suitable metals. Required depth, filled area, edge quality and cycle target affect the appropriate power and process strategy.
See fiber laser sample demonstrations
Photo engraving on a pendant
See a portrait engraved on a pendant. Image preparation, surface finish and marking settings influence detail and contrast.
A simple cutout in a thin can lid
A small sample demonstration of a cutout in a thin metal can lid. Capability depends on the laser configuration, material, thickness and process; this does not establish sheet-metal production cutting capacity.
How to choose between 20W and 120W
Lower-power configurations are commonly evaluated for routine surface identification and detailed marks. Mid-range and higher-power systems may provide a more suitable process window for deeper engraving, larger filled areas or shorter cycle targets. The correct choice still depends on the alloy, marking field, lens, artwork and acceptance standard; a higher wattage does not automatically produce a better mark.
Send the smallest feature, largest filled area, required depth or contrast, part dimensions and expected output. FYXFER can then define which powers should be included in sample testing.
For broader pulse-width control, compare our MOPA laser marking machines .
If the requirement is a dark stainless-steel mark, compare standard fiber and MOPA on the actual part . Record surface finish, contrast, heat effect and accepted output to decide whether additional pulse control is useful.
Application details
Typical materials and fiber laser results
Fiber technology is a practical starting point for stainless steel, carbon steel, aluminum, brass, copper alloys, coated metals and selected engineered plastics. Alloy, coating, color, additives and surface finish can change the process window, so representative sample testing is recommended when contrast, depth or code quality is critical.
See more use cases on our laser marking applications page.
Serial numbers and traceability codes
Apply part numbers, date codes, barcodes, QR codes and data-matrix codes to production components. Code size, readability target, content source and verification method should be defined before configuration.
Logos and high-contrast marks
Create logos, scales, labels and identification graphics through surface change, annealing or coating removal where the material supports the required effect.
Engraving and material removal
Fiber systems can be evaluated for visible engraving depth on suitable metals. Required depth, filled area, edge quality and cycle target affect the appropriate power and process strategy.
See fiber laser sample demonstrations
Photo engraving on a pendant
See a portrait engraved on a pendant. Image preparation, surface finish and marking settings influence detail and contrast.
A simple cutout in a thin can lid
A small sample demonstration of a cutout in a thin metal can lid. Capability depends on the laser configuration, material, thickness and process; this does not establish sheet-metal production cutting capacity.
How to choose between 20W and 120W
Lower-power configurations are commonly evaluated for routine surface identification and detailed marks. Mid-range and higher-power systems may provide a more suitable process window for deeper engraving, larger filled areas or shorter cycle targets. The correct choice still depends on the alloy, marking field, lens, artwork and acceptance standard; a higher wattage does not automatically produce a better mark.
Send the smallest feature, largest filled area, required depth or contrast, part dimensions and expected output. FYXFER can then define which powers should be included in sample testing.
For broader pulse-width control, compare our MOPA laser marking machines .
If the requirement is a dark stainless-steel mark, compare standard fiber and MOPA on the actual part . Record surface finish, contrast, heat effect and accepted output to decide whether additional pulse control is useful.
Configure the machine around the workflow
For organic and many non-metal materials, review CO2 laser marking machines ; for fine, low-heat work, review UV laser marking machines .
Machine format
Choose an open, enclosed, desktop, floor-standing, handheld or in-line platform according to part size, loading method, operator access and integration needs.
Optics and part handling
Confirm the marking field, focal requirements, Z-axis travel, fixture and rotary axis. Cylindrical, recessed or irregular parts may need dedicated handling.
Software and production data
Define fixed artwork, counters, serial-number rules, database content, sensors, PLC communication and code verification before an automated system is specified.
Fiber laser marking machine FAQs
Can one fiber laser mark every metal?
No single setting suits every alloy, coating and finish. The exact contrast, depth and cycle should be verified on the intended production material.
What power should I choose?
Choose after reviewing the required result rather than wattage alone. Surface marks, deep engraving, large filled graphics and cycle targets can lead to different recommendations.
What should I send for a quotation?
Send the material grade and finish, part photos and dimensions, artwork, field size, desired result, output target, loading method and destination requirements.
Configure a fiber laser around your real part
Share your material, artwork, dimensions and required result. FYXFER will review the application before recommending a power range and machine format.
Laser marking selection resources
Fiber laser marking machine for metal · Fiber vs MOPA · 20W vs 30W vs 50W · Stainless-steel marking
Considering a compact workstation for logos or serial numbers?
See FY-LMM02 in detail
Review the integrated desktop platform, real machine photographs, field-lens options and configuration checklist before requesting a quote.
Prepare a useful sample request
Identify the material and surface finish, then send the part dimensions, artwork, required contrast or depth and output per shift.
Need to cut metal instead of marking it?
Compare fiber laser cutting formats for sheet metal and industrial fabrication.
04 / Downloads
Planning resources
Before you enquire
Can one fiber laser mark every metal?+
No single setting suits every alloy, coating and finish. The exact contrast, depth and cycle should be verified on the intended production material.
What power should I choose?+
Choose after reviewing the required result rather than wattage alone. Surface marks, deep engraving, large filled graphics and cycle targets can lead to different recommendations.
What should I send for a quotation?+
Send the material grade and finish, part photos and dimensions, artwork, field size, desired result, output target, loading method and destination requirements.
05 / Discuss my application
Tell us what you need.
Start with your material and application. Add the dimensions, result and production target when known.
Selected machineFiber Laser Marking Machines for Metal and Production Parts
Discuss my application
Tell us what you need.
Continue on our contact page to share your application and request a configuration.
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