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Industrial Laser Trends

Laser Wafer Cleaning: A Non-Contact Alternative

By Alex Laymon on

Wafer cleanliness can determine the success of every process that follows. Laser wafer cleaning offers a precise, non-contact method for removing targeted contaminants while minimizing mechanical stress on the wafer. A laser can scan the entire surface across a wafer or target specific areas.

Laserax takes a majority stake in Germany-based SLCR Lasertechnik GmbH

By Laserax on

The strategic partnership strengthens Laserax's position as a global leader in industrial laser solutions, expands its manufacturing footprint and gives customers access to some of the industry's most advanced laser solutions.

PCB Marking: How to Choose a PCB Laser Marking Machine

By Alex Laymon on

Every printed circuit board that leaves a fabrication line needs to be traceable to its source. Traceability data (serial numbers, lot codes, Data Matrix symbols) must survive assembly, reflow, cleaning, coating, and years of field service, all while fitting within a marking area smaller than a grain of rice.

PCB Depaneling: A Guide to PCB Separation Methods

By Alex Laymon on

Looking for the right PCB depaneling method? This guide compares the leading options and explains how each affects cost, cycle time, board quality, and defect rates so you can choose the best approach for your application.

Wafer Marking: Laser Solutions for Semiconductor Identification

By Alex Laymon on

Semiconductor manufacturing requires incredible precision. In an industry where one micron is considered large, even minor process deviations can compromise yield or performance. Laser wafer marking is often the best solution, offering non-contact processing with high repeatability and integration into automated workflows.

Laser Drilling for Medical Device Manufacturing

By John Gonzales on

As medical devices shrink to navigate tiny, complex anatomical pathways, the manufacturing tolerances required to produce them have reached the sub-micron scale. Components like neurovascular catheters, bioresorbable stents, and implantable drug delivery pumps demand features so small that traditional machining methods can no longer handle them efficiently without compromising material integrity.
 

Precision Laser Cutting for Medical Devices

By John Gonzales on

Historically, medical device manufacturing relied on traditional mechanical blade cutting. But mechanical cutting introduces physical stress, contamination risks, and structural deformation to fragile components.

UV Laser Marking: Precision for Delicate Materials

By John Gonzales on

When precision marking is required on delicate or heat-sensitive materials, ultraviolet (UV) laser technology offers a distinct advantage.

By minimizing thermal impact, UV laser marking creates high-contrast, permanent marks while preserving material integrity and meeting demanding traceability requirements.
 

Laser Marking & Coding in the Medical Industry

By John Gonzales on

Walk into any Hospital and you'll see it immediately. Every single tool, implant, and device has some kind of marking on it. Serial numbers, logos, barcodes. When you're putting something inside someone's body, or even just touching their skin, you need to know exactly what it is, where it came from, and when it was made.

How Does Laser Cleaning Work in 5 Steps

By Alex Fraser on

Laser cleaning is an eco-friendly process used to remove rust, paint, oxide and other contaminants from metal surfaces. Because of its efficiency, it is being used in an increasing number of applications.

Medical Device Tracking & Traceability

By John Gonzales on

In an industry shaped by strict regulations, globalized manufacturing, and increasing patient expectations, the ability to know exactly where a device has been, how it was made, and where it is going has become essential.

Laser Cutting, Marking & Drilling of Medical Catheters

By John Gonzales on

Modern catheter systems are becoming smaller, more complex, and more specialized for procedures ranging from cardiovascular interventions to neurovascular treatments. At the same time, these devices must meet extremely strict manufacturing and regulatory requirements.