A fibre laser marking machine uses a solid-state laser source generated and amplified through doped optical fibres. This modern technology provides: higher electrical-to-optical conversion efficiency (over 30%, compared with 3–5% for lamp-pumped Nd:YAG and 10–15% for CO₂ lasers at the same output power); extended operational lifespan exceeding 100,000 hours through the inherent durability of the diode-pumped fibre gain medium and the absence of consumable components (no flash lamps, no mirrors to align, no gas refills); and superior marking quality through the excellent beam quality (low M²) that fibre laser sources produce natively, delivering a tighter focused spot, higher energy density per unit area, and finer minimum feature size than older laser technologies at equivalent power.

Fibre lasers emit high-peak power beams with excellent beam quality, allowing fast, accurate, and permanent marking on a variety of materials. The 1064 nm wavelength is strongly absorbed by metals and many engineering plastics, producing the high-contrast, abrasion-resistant marks required for industrial traceability, UDI medical device marking, and automotive component identification. The combination of efficiency, lifespan, beam quality, and low maintenance makes fibre laser marking the dominant technology for industrial marking applications globally, displacing lamp-pumped Nd:YAG, CO₂, and inkjet coding for the majority of metal and plastics marking requirements.

Core System Components

• Fibre Laser Source (20W / 30W / 50W, 1064 nm, rated 100,000+ hours): the marking energy source, with power selected to match marking speed, material type, and mark depth requirements
• High-Speed Galvanometer Scanners: rapidly and accurately direct the laser beam across the marking field for detailed, high-quality markings at production-relevant speeds
• F-Theta Focusing Lens (Ø140 mm / Ø220 mm / Ø290 mm marking field options): focuses the beam to the marking plane with consistent spot size across the field
• 750 × 500 mm Work Table (100 kg capacity): accommodates a wide range of industrial component sizes and weights
• FlyCAD Marking Software (WYSIWYG, 9-axis control, MES/ERP integration): manages mark design, production data, automation, and robotic synchronisation
• 110–230 VAC Power Supply: flexible voltage for Indian 230V standard and international use

Laser Marking Software: FlyCAD

The FlyCAD software enhances fiber laser marking functionality through:

• • User-Friendly WYSIWYG Interface (What You See Is What You Get)
  • Complete Marking Control: Text, serial numbers, barcodes, datamatrix, logos.
  • 9 Axis Movement Control: For advanced robotics and automation.
  • MES-ERP System Integration: Seamless data management.
  • Custom Software Development: Tailored marking workflows.
  • Robotic Synchronisation: PROFIBUS, PROFINET, RS232 connectivity.
  • Lifetime Free Updates: Future-proof your investment.

Unmatched Precision

Capable of creating intricate, crisp, and distortion-free designs, serial numbers, and 2D codes. Ideal for small surfaces and detailed markings with high clarity. The high beam quality (low M²) of the fibre laser source produces a tight, consistent focused spot that maintains the fine mark resolution required for DataMatrix codes with small cell sizes, microtext serialisation, and logo marks on small components — even at the higher marking speeds that production environments demand.

Fast and Efficient

Performs rapid marking tasks, significantly increasing production throughput. Maintains high quality at high speeds, optimising workflow. The high-speed galvanometer scanners operate at scan speeds that mechanical marking alternatives cannot approach, enabling the same high-quality mark to be produced in a fraction of the time required by dot-peen, inkjet, or pad printing methods, supporting Indian manufacturers scaling output volumes without expanding marking station headcount.

Durability and Traceability

Produces permanent laser markings resistant to abrasion, high temperatures, and harsh chemicals. Ensures long-term traceability across product lifecycles. Fibre laser marks are not surface coatings or inks that can be abraded, dissolved, or delaminated — they are permanent changes to the material structure itself (oxidation colour change on metals, or ablative removal on plastics), surviving the full thermal, chemical, and mechanical service history of the component from manufacturing through end-of-life.

Low Maintenance and Cost Savings

No consumables such as inks or solvents needed, reducing downtime and operational costs. Fiber lasers are reliable and require minimal maintenance with a 100,000+ hour rated lifespan, enhancing overall efficiency. This maintenance and consumable profile is fundamentally different from inkjet, thermal transfer, and pad printing coding alternatives, all of which require ongoing consumable management, print head cleaning cycles, and periodic component replacement that add operational cost and periodic production interruption to the marking function.

Wide Material Compatibility

Suitable for stainless steel, aluminium, brass, plastics (ABS, PVC, PE), and ceramics. Adaptable to diverse applications across industries, from electronics to jewellery. The 1064 nm fibre laser wavelength is particularly well matched to metals and many engineering plastics — providing the energy absorption required for high-contrast marks on these materials — while the adjustable power, pulse frequency, and scan speed parameters allow the same platform to be configured for very different material and mark quality requirements across the breadth of the supported material list.

FlyCAD Software — 9-Axis Control and Lifetime Free Updates

The FlyCAD WYSIWYG marking design and production software provides complete control over marking parameters, design layout, and automation integration. The 9-axis synchronised motion control capability manages the galvo scanner plus up to seven additional robotic, rotary, or conveyor axes, enabling complex multi-axis marking cell integration. MES/ERP system integration via PROFIBUS, PROFINET, and RS232 enables variable data marking without manual operator entry. Lifetime free software updates protect the customer’s investment against future software obsolescence — a meaningful total cost of ownership differentiator over competing platforms that charge for firmware and software updates.

Industrial Manufacturing and Engineering

Fibre lasers are widely used for part identification, regulatory compliance, and inventory control in high-throughput production lines:

• Serial number and batch code marking on machine components, brackets, and fasteners for production traceability and quality audit
• Logo marking on precision and industrial engineering components for brand identification and supplier accountability
• Asset tracking and lifecycle traceability marking on industrial equipment and capital assets, supporting maintenance schedule compliance

Medical Device and Healthcare Equipment

Fibre lasers meet ISO 13485 and FDA UDI standards for hygienic, corrosion-resistant, and permanent markings:

• Laser etching on surgical tools and implants: permanent, sterilisation-resistant marks supporting CDSCO MDR 2017 UDI requirements and international regulatory compliance
• Traceability codes on endoscopes and catheters, with marks surviving repeated chemical sterilisation cycles without delaminating or harbouring contamination
• Calibration marks on diagnostic devices and corrosion-resistant DataMatrix serialisation on precision medical instruments

Electronics and Semiconductor Industry

Fibre laser marking enables micron-level precision for traceability of miniature components:

• Serial number and component ID engraving on PCB assemblies, microchips, connectors, and housings, supporting India’s PLI-driven electronics manufacturing expansion
• Anti-counterfeit codes on memory cards and semiconductors for secure supply chain authentication
• Static and dynamic marking on ESD-sensitive surfaces without the mechanical contact risk of dot-peen or label application

Aerospace and Defence Components

Compliance with AS9100 and MIL-STD requirements makes fibre laser marking the standard for aerospace part identification:

• Permanent part identification and UID (Unique Identification) coding on titanium, Inconel, and high-strength alloy components supporting HAL and India’s expanding aerospace manufacturing sector
• Certification and inspection markings that survive the thermal, vibration, and chemical exposure of aerospace service environments

Automotive and EV Component Manufacturing

In automotive and electric vehicle applications, fibre lasers support comprehensive component traceability:

• VIN number engraving and component traceability marking for drivetrain, chassis, and braking systems under IATF 16949 requirements at Indian automotive Tier 1 and Tier 2 suppliers
• Laser coding on EV battery modules and thermal management components, and compliance labelling for safety-critical assemblies

Tooling, Dies, and Mould Manufacturing

Fibre laser machines deliver high-resolution and durable markings for tooling asset management:

• Mould cavity identification, part number etching on die inserts, and engraving wear-resistant codes on tungsten carbide and hardened steel tooling surfaces that withstand the working environment of precision manufacturing
• Engraved tool calibration data on precision instruments and fixtures for metrology traceability

Die Casting and Forging Industry

In die casting and forging operations, fibre lasers ensure traceability on large, heavy, heat-treated components:

• Part identification on forged shafts, crankcases, and gears with marks that survive the post-forging heat treatment and shot blasting processes common in Indian automotive forging clusters
• Casting batch numbers on aluminium or magnesium die-cast parts, logo and safety compliance marks on heavy-duty components, and post-process laser engraving on rough or oxidised surfaces

Jewellery, Watches, and Luxury Goods

Fibre lasers are prized in high-end sectors for detailed, burr-free marking on delicate materials:

• Monogramming and serialisation on jewellery, custom logo engraving on watches and accessories, and anti-counterfeit features on luxury packaging — relevant to India’s large jewellery manufacturing clusters in Surat, Mumbai, and Jaipur
• Precision engraving on gold, silver, platinum, and titanium with the fine focused spot that produces clean, high-contrast marks without heat damage to adjacent delicate surfaces

Scientific Instruments and Laboratory Equipment

Precision marking in scientific environments supports calibration and asset traceability:

• Calibration scales on lab glassware, serial number engraving on sensors and instruments, and asset tagging for cleanroom-compatible devices with marks that survive laboratory chemical exposure and autoclave sterilisation