Browse by Editorial Category
Browse by Edition Date

March 2016

Skip Navigation Links.
Expand Additive ManufacturingAdditive Manufacturing
Expand Applying TechnologyApplying Technology
Expand Education-TrainingEducation-Training
Expand Current NewsCurrent News
Collapse Material HandlingMaterial Handling
Multipurpose Industrial Robot with High Payload Range
Reversible Boom Crane Loses Weight
Automation Technology for Synchronization of Conveyor Belts Robots
End-to-End Tire Plant Solution
Compact High Payload Robot
AGV Tugger with Shelves Provides Ability to Tow Carts
Turnkey Inline Part Marking Solution with 16-Bus Card
Scrap Metal Compression Machine
Variety of Chip and Parts Conveyors
Motion Controller for Multi-Axis General Motion Applications
Customizable Tube Lifting Technology
Position Feedback Offered for Torque Reaction Arms
Fiber Lasers for Marking Plastics Metals and Other Materials
Enhanced Workstation Family
Updated Chip and Scrap Removal Conveyor
Heat Shrink Tube and Barcode Printer
Expanded Storage and Retrieval Product Portfolio
Updated Features for Smart Crane
Dot Peen Marker with Visual Layout Function
Two-Wheel Hand Truck with Powered Lift
Updated Modular Workstation
Survey Reveals 47 Percent of Manufacturers Experience Production Downtime Due to Labeling Disruptions
Accessories for Battery Operated Marking System
Renewed Balance Portfolio
Decoding Algorithms for Barcode Readers
Orbital Stretch Wrapper
Screw Conveyor Designed for Efficient Movement of Metal Turnings and Chips
Manual Palletizer Automatically Raises and Lowers Loads
Out-of-the-Box Dimensioning System
Lightweight Battery-Operated Handheld Marking Unit
Transfer Crane Streamlines Powder Coat Oven Cure
Custom Designed Tooling for Line of Custom Industrial Manipulators
3-D Stylus for Dot Peen Marking
High-speed Camera-Based 1-D and 2-D Barcode-SDK
Entry-Level Marking Lasers
DC Powered Die Table
System for Managing Vertical Storage
Expanded Ferris Wheel Style Robotic Part Positioner Line
Expand People In The NewsPeople In The News
Expand Quality ControlQuality Control

show all editions →

Click here to watch Tutorial Videos >

SST ConsumablesSST ConsumablesIscarIscar

Fiber Lasers for Marking Plastics, Metals and Other Materials



Marking laser FOBA Y.0200 (with integrated IMP vision system) integrated in a FOBA M2000-P laser marking station

Marking laser FOBA Y.0021 with integrated vision system

Graded white, grey and black marks on anodized aluminum

Stainless scalpel holder with black marking

Automotive electronic part with laser mark (color change on plastic)

Black marking on aluminum

With its Y-Series, FOBA Laser Marking + Engraving has introduced the next generation of high-precision fiber lasers for direct part and product marking. "With its newly developed scan head technology and the modular design, the fiber laser marking systems in the Y-Series provide high integration capability and application flexibility," said a company spokesperson. "They are built to be easy to integrate in production lines and laser marking stations, and ensure tailored solutions for a wide variety of marking applications." A scan head built-in vision system for in-process imaging combines validation and verification prior to and directly after laser marking.

"Laser marking has become one of the preferred methods for product identification, decoration and material processing," said a company spokesperson. "Due to ever increasing quality standards, new legal and industrial regulations, or the manufacturer's intent to add value and safety to their products, many applications have already been developed and still, new fields of use arise. Especially medical technology and automotive industries show a growing demand for reliable, accurate and at the same time efficient direct part marking and identification solutions, which enable safe traceability and provide counterfeit protection."

"Nowadays, part marking systems not only have to mark reliably. They also have to demonstrate flexibility, as the applications, requirements and materials of our customers vary widely and become more and more complex," said Michael Strzyz, Director Product Management for FOBA Laser Marking + Engraving. "Only tailored solutions ensure optimal marking results, easy integration and at the same time cost-efficient processing. Our clients have different requirements in terms of marking speed, marking quality and marking precision. This requires flexibility." This series of fiber laser marking systems has been developed to create more clarity and take the complexity out of laser marking. With the Y-Series, FOBA has introduced a modular platform consisting of nine compact and flexible fiber marking lasers spanning power and pulse width ranges. The proprietary scan head technology offers tunings for optimal marking quality and high marking speeds.

"The easy integration into various production environments and systems is one of the key customer requirements when it comes to installing a marking laser," said the spokesperson. The modular design of the Y-Series takes this into account as it includes nine different Ytterbium fiber laser sources (1064 nanometer wavelength), which are identical in construction, spanning power (2 to 50 watts) and pulse width (1.5 to 200 nano seconds) ranges and two continuous-wave lasers (CW) on one modular platform. Additional features include various optics, a choice of marking fields, two beam turn versions for straight-out or 90° beam exit, a patented camera system and customer interfaces (TCP/IP, Profibus) for flexible integration.

"Across all industries, parts and products are becoming smaller, and more complex in shape. Across the entire product life-cycle, reliable readability of all marked contents is important," said the spokesperson. Permanent and precisely positioned markings are among the most decisive quality criteria - particularly in the automotive, automotive supplies and medical technology industries where safety comes first. What is more, many manufacturers have to mark a variety of products which leads to varying requirements on the marking quality and therefore also on the marking speed. With the two scan head tunings High-S (for higher marking speeds) and High-Q (for higher marking quality), the Y-Series offers two parameter sets for each one of these use cases.

The High-R (resolution) marking field calibration is designed for accurate mark positioning and a reduction of marking field distortions. "Both are crucial when marking small parts and applying large marking contents, but also when high code integrity is required," said the spokesperson.

All Y-Series fiber marking lasers are available with the optional vision system IMP (Intelligent Mark Positioning) directly integrated in the marking head. IMP is the core of FOBA's holistic vision-aided laser marking process HELP (Holistic Enhanced Laser Process), which offers verification prior to marking and validation right after. The validation of marking contents right after the laser marking helps to avoid marking errors, reduces scrap and non-conforming products and ensures process reliability. Important for manufacturers with strict quality and code and data integrity: 1-D and 2-D contents are directly read back during post-mark validation and characters and images are immediately verified.

The fiber laser marking systems in the Y-Series are designed for the reliable laser marking of various plastics (i.e. epoxy resins, foils), metals (i.e. aluminum, steel, titan, etc.) and other materials with codes (QR, DMC, barcodes), alphanumeric signs, logos, graphics and images. Y-Series marking lasers are specifically engineered for the corrosion-resistant marking of medical stainless products. The powerful fiber lasers built for the precise and efficient direct part marking (DPM) in almost all industrial areas - ranging from the automotive and automotive supplies industries through medical and safety technology to electronics and others.

For more information contact:

Videojet Technologies Inc.

1500 Mittel Blvd.

Wood Dale, IL 60191

800-288-7755 / 800-582-1343

sales-na@fobalaser.com

www.fobalaser.com

< back