Industrial Laser System – Laser Marking Machine
Robotic Laser Marking Workstation
Introduction to Robotic Laser Marking Technology
In today’s rapidly evolving industrial landscape, Robotic Laser Marking Workstations represent the convergence of advanced robotics and cutting-edge laser technology.
These intelligent systems deliver exceptional flexibility, speed, and precision, enabling manufacturers to mark complex 3D geometries and handle high-volume production with ease.
As industries drive toward greater automation, traceability, and customisation, Robotic Laser Marking Workstations have become indispensable tools across a wide range of applications.
Understanding Robotic Laser Marking Technology
Robotic Laser Marking Workstations seamlessly integrate:
- High-Precision Robotic Arms
- Advanced Laser Sources (Fiber, CO₂, UV)
- Sophisticated Vision Systems
- Safety Enclosures and Light Curtains
- User-Friendly Control Software
- Automated Material Handling Modules
This synergy allows for high-speed, accurate marking on even the most complex part geometries, improving both productivity and quality.
Learn more about the fundamentals in our Laser Marking Technology Guide.
Technical Specifications
- Laser Source: Fiber Laser 20W / 30W / 50W
- Marking Area: ø140 with FFL160 / ø220 with FFL254
- Marking Height: 200 mm (FFL160) / 95 mm (FFL254)
- Power Supply: 110 – 230 Vac, 50Hz
Laser Marking Software: FlyCAD
Our proprietary FlyCAD software provides an intuitive Windows-based environment offering:
- User-Friendly: Windows-based WYSIWYG design.
- All-in-One File Management: Handles power, frequency, and design files (LMF/XML).
- Versatile Marking: Supports TrueType text, serial numbers, barcodes, and logos.
- Motion Control: Manages up to 9 axes.
- Lifetime Free Upgrades: Always stay updated.
- MES-ERP Integration: Easy system-wide integration.
- Custom Software Development: Tailored marking solutions.
- Robotic Synchronisation: Compatible with PROFIBUS, PROFINET, RS232.
Key Features and Advantages
Key Features for Smart Manufacturing
• High-Precision Robotic Arm: Six-axis flexibility for complex part handling.
• Laser Marking Source: Fiber, CO₂, or UV laser configured to match material needs.
• Vision System: Real-time recognition and alignment for perfect accuracy.
• Integrated Safety Enclosure: Meets international safety standards.
• User-Friendly Control Interface: Simplifies programming and live monitoring.
• Automated Part Handling: Load/unload systems enhance throughput.
• Quality Control Modules: Real-time inspection and mark verification with logging.
Enhanced Flexibility and Adaptability
• Capable of marking complex 3D geometries, curves, and irregular surfaces.
• Quick changeovers between product types or designs.
• Programmable patterns eliminate the need for mechanical adjustments.
Increased Productivity and Efficiency
• Automated handling reduces manual labour and operational delays.
• 24/7 continuous operation supports high-volume production.
• Reduced setup times as robots adapt automatically to part variations.
Consistent High-Quality Marking
• Precise robotic positioning ensures repeatability.
• Uniform clarity and depth across batches and production lines.
• Supports intricate designs, logos, serial numbers, and 2D codes.
Improved Traceability and Quality Control
• Vision systems verify each mark in real time.
• MES and ERP connectivity enables seamless data exchange.
• Automated logging ensures compliance with industry standards.
Applications Across Industries
Automotive Manufacturing
- VIN Number Engraving: On chassis and body structures.
- Component Serialisation: Engines, transmissions, brakes.
- Decorative Branding: Interior panels, trims, controls.
Aerospace and Aviation
- Turbine Blade Marking: Curved surfaces, complex components.
- Part Traceability: High-temperature-resistant identification.
- Safety-Critical Component Marking: Aircraft fuselage parts.
Medical Device Production
- UDI Compliance: Surgical instruments, implants.
- Batch Coding: Pharmaceutical packaging.
- 3D Surface Marking: On intricate medical tools.
Consumer Electronics
- Logo Engraving: Curved smartphones, laptops.
- Component Serialisation: Batteries, chips, PCB boards.
- Customisation: Personalised gadgets and accessories.
Explore more applications in our Robotic Laser Marking Application Showcase.
Why Choose United Spectrum Instruments?
As the official channel partner for LASIT Laser (Italy) in India, United Spectrum Instruments provides:
- Robotic Laser Marking Systems featuring 20W fiber lasers, upgradeable to 30W or 50W.
- Solutions for metals, plastics, ceramics, glass, and wood.
- Expert Consulting: Tailoring systems to your unique production needs.
- Rigorous Quality Assurance: Each system undergoes strict testing.
- Comprehensive Customer Support: Training, service, and maintenance assistance.
FAQs
What industries benefit most from robotic laser marking?
Industries like automotive, aerospace, medical devices, electronics, and luxury goods benefit from robotic laser marking for precision, traceability, and complex 3D surface marking.
Can robotic laser systems handle different product sizes?
Yes. Robotic arms can adapt to various product sizes, shapes, and orientations without mechanical retooling.
Are robotic laser marking systems safe to operate?
When equipped with proper laser enclosures, safety interlocks, light curtains, and ventilation systems, and when operators are properly trained.
What types of lasers are used in robotic marking workstations?
Typically, fiber lasers (for metals), CO₂ lasers (for organics and plastics), or UV lasers (for delicate materials like glass and electronics) are integrated depending on application needs.
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FAQs
What industries benefit most from robotic laser marking?
Industries like automotive, aerospace, medical devices, electronics, and luxury goods benefit from robotic laser marking for precision, traceability, and complex 3D surface marking.
Can robotic laser systems handle different product sizes?
Yes. Robotic arms can adapt to various product sizes, shapes, and orientations without mechanical retooling.
Are robotic laser marking systems safe to operate?
When equipped with proper laser enclosures, safety interlocks, light curtains, and ventilation systems, and when operators are properly trained.
What types of lasers are used in robotic marking workstations?
Typically, fiber lasers (for metals), CO₂ lasers (for organics and plastics), or UV lasers (for delicate materials like glass and electronics) are integrated depending on application needs.
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