English

Coherent Unifies Ultrafast Laser Business at the Glasgow Center of Excellence

1059
2023-09-22 14:21:53
See translation

Recently, Coherent, an American laser system solution provider, announced that all of the company's ultra fast laser business, including the manufacturing of all picosecond and femtosecond lasers, will be unified in one place: the Ultra Fast Center of Excellence in Glasgow, Scotland.

Previously, Coherent's Ultra Fast Center of Excellence located in Glasgow was already a state-of-the-art mass production facility focused on lean production. After recent expansion and renovation, it will accommodate all of the company's ultra fast laser businesses - flagship femtosecond lasers (such as the Coherent Monaco) and picosecond lasers (such as the Rapid and HyperRapid series), which will now be produced at this factory.

Chris Dorman, Executive Vice President of Coherent Laser Business, said, "Creating this extended Center of Excellence will achieve incredible cross product collaboration and standardization of components and processes, and will enable integrated resource planning.

Most importantly, this will translate into some key advantages for Coherent customers, especially their bulk OEMs, including:
-Single point concentration and diffusion achieved in the production of all ultra short pulse (USP) lasers
-Accelerate product development
-Shorten delivery time
-Faster batch production increase
-Flexibility of operation

He added, "This significant transformation in the company's structure demonstrates the maturity of the development of femtosecond lasers. Femtosecond lasers are comparable to picosecond lasers in terms of stability and long-term reliability, operational simplicity, and compact and sturdy packaging. This maturity is reflected in the lasers themselves and their usage: for example, in high-throughput 24/7 industrial applications such as cutting flexible displays, and in life science applications (such as cancer cell analysis), as well as in scientific research in the 'hard core' laboratory (such as attosecond physics).

Chris Dorman pointed out that in all of these fields, femtosecond lasers have become super simple, reliable, and have become tools that can be operated with just one click - much different from engineering innovation a few years ago. They are smaller and more powerful than ever before, and now most types can provide the most advanced and convenient performance.

These characteristics enable femtosecond lasers to be "deeply embedded" in production tools and machines in the display and semiconductor industries, where uninterrupted operation 24/7 is a prerequisite. Laser is also widely used for precision cutting in medical equipment manufacturing departments, such as next-generation coronary artery stents.

The power of femtosecond lasers has also been improved, with the latest Coherent Monaco model providing up to 150 watts of infrared output or up to 50 watts of ultraviolet output. The latter is an important performance indicator for achieving volume cutting of flexible displays.

Fabian Sorensen, Product Line Manager for Industrial Ultra Short Pulse Lasers, explained that the development of this application is occurring simultaneously with changes in laser manufacturing methods. He said, "A key aspect of ultra short pulse lasers nowadays is their maturity as turnkey material processing tools, despite their incredible unique functions.

Customers from large manufacturers to small processing workshops no longer need internal laser engineers. The mass production of our picosecond industrial lasers and scientific femtosecond lasers (such as Chameleon) has fully demonstrated efficient methods. Now, all of our USP/ultrafast lasers will benefit from exactly the same lean manufacturing method.

Sorensen added that another factor behind this unification is the rapidly growing OEM demand for Monaco lasers in the display and semiconductor industries. He explained, "These lasers are very popular in both industries, combining femtosecond pulse width with tens of watts of ultraviolet power or up to 150 watts of near-infrared power to keep up with upstream and downstream processes with the highest quality requirements in high-throughput applications.

Sorensen concluded: So far, we have achieved great success in manufacturing these lasers in Santa Clara, California. Now is the right time to shift production to Scotland, where we have the technology and expertise to increase production and have extremely high unit to unit collaboration. We are able to provide OEM customers with the flexibility they require, while improving product reliability and overall performance, making it better for science Curiosity has transformed into the cornerstone of today's industry.

Source: OFweek

Related Recommendations
  • The scientific research team has proposed a modeless Raman fiber laser using a traditional resonant cavity structure

    The pump source, gain material, and resonant cavity are the three elements that make up a laser. Due to the selective effect of the resonant cavity on the lasing frequency, multi longitudinal mode operation is one of the characteristics of fiber lasers based on traditional resonant cavity structures, manifested as periodic beat peaks in the radio frequency (RF) spectrum and periodic fluctuations i...

    2023-08-15
    See translation
  • Light Adv. Manuf. | Laser Direct Writing Assists Perovskite Optoelectronic Applications

    IntroductionMetal halide perovskites have excellent optoelectronic properties and have become the undisputed "star" materials in the semiconductor field, attracting great attention from both academia and industry. With a large amount of research investment, the application of perovskite covers various optical and optoelectronic fields such as single photon sources, micro nano lasers, photodetector...

    2024-03-25
    See translation
  • Polarization of Laser Writing Waveguides Controlled by Liquid Crystal

    German researchers have developed a method for controlling and manipulating optical signals by embedding liquid crystal layers into waveguides created by direct laser writing. This work has produced devices capable of electro-optic control of polarization, which may open up possibilities for chip based devices and complex photonic circuits based on femtosecond write waveguides.Researcher Alexandro...

    2024-03-13
    See translation
  • New technology from Swedish universities enables real-time laser beam forming and control

    Dr. Yongcui Mi from Western University in Sweden has developed a new technology that enables real-time laser beam shaping and control for laser welding and directional energy deposition using laser and metal wire. This innovative technology draws on the mirror technology used in advanced astronomical telescopes.Adaptive beam shaping using deformable mirror technology (Image source: Western Univer...

    2024-12-19
    See translation
  • HSG Laser launches new generation laser solutions

    HSG Laser unveiled its next-generation laser cutting solutions—the GH V2.0 high-power flatbed system and TS2 intelligent tube cutting machine—at its Düsseldorf showroom, marking a major milestone in its European market expansion. (Image: HSG Laser)Attended by customers and partners from across the continent, the event featured live demonstrations of both systems and highlighted HSG’s growing i...

    06-27
    See translation