Deutsch

Trends and Reflections on the Laser Industry in 2025

1667
2025-01-02 16:19:01
Übersetzung anzeigen

In 2024, the laser industry will still reach new heights, although some predicted concerns have been fulfilled! From beginning to end, the development path of the manufacturing industry has been full of uncertainty, but as time passes and we enter a new year, new technologies continue to emerge like mushrooms after rain.

In 2025, practitioners in the laser and manufacturing industries still face many challenges.
The turbulent international situation in Europe and America, as well as the threat of various geopolitical conflicts, will lead to supply chain restructuring, major changes in the automotive manufacturing industry, and a glimmer of hope for the semiconductor industry
With the increasingly fierce competition in the industry, words such as "internal competition", "reshuffling", and "cold winter" will continue to be heard throughout the year. Every enterprise in the laser industry chain is striving to explore new paths, striving to break through and protect themselves in the era of great change.

Looking back at 2024 and looking ahead to 2025, what industry trends are worth paying attention to?
According to the latest research data from Optech Consulting, it is expected that the global laser material processing equipment market will reach $23 billion by 2024.



Image source: Optech Consulting
From the chart, the market size has decreased by 1% to 5% compared to the historical high of $23.5 billion set in 2023.
Geographically speaking, only a few markets have shown growth this year, while demand in the European and American markets has declined, while the Chinese market has remained stable with no significant upward or downward trend.

From an application perspective, market growth is gradually shifting from macro processing to micro processing. Prior to this, the market demand for laser precision machining equipment had experienced a two-year slump, but this year the demand has rebounded. In contrast, the cutting equipment market has declined for the second consecutive year, while the growth rate of the laser welding market has slowed down due to the maturity of China's new energy vehicle market.

Based on existing information and overall trends, the market trend of the laser industry in 2024 is expected to continue until early 2025, with precision machining continuing to strengthen and the macro machining sector also expected to continue to decline.

In addition to laser processing, other fields are also emerging. Thanks to the rapid development of artificial intelligence, photonics is gradually moving towards the semiconductor field. When will it enter the PCB level or even chip level applications? The answer seems to be now.

It is reported that billions of dollars have been invested in companies that are driving photonics towards PCB and chip levels by 2024. For example, in October, Google Ventures invested $400 million in Lightmatter, with the ultimate goal of elevating photonics to the level of processors. Now it seems that the industry is actively embracing photon interconnect technology, aiming to break through the speed and bandwidth limitations of traditional electronic interconnects.

Beyond the aforementioned fields, laser fusion is also a frequently mentioned term this year. However, true commercialization is still some time away. Multiple rounds of investments were made in global nuclear fusion startups in 2024, but the amounts were mostly in the millions of dollars. These funds are sufficient to support the construction of other laser facilities, but they are far from enough for laser fusion testing facilities.
Although NIF has made good progress this year and is expected to achieve an output of 5.2MJ by 2024, it still faces many problems: which laser fusion process will achieve net gain, that is, the energy generated exceeds the energy required by the laser? What is the goal of mass production?

To address this, we first need a pump laser that is larger and more efficient than any product we currently have, and optical devices that can withstand long-term high-power, high-energy, and high-intensity operations. Germany is currently conducting research and development on the above-mentioned projects, preparing necessary components for laser fusion power plants, developing more efficient laser diodes, and efficient manufacturing technologies.

At the industrial level, TRUMPF, Jenoptik, Laserline, and AMS OSRAM are involved; At the research level, ILT and FBH are also involved.
Although the actual laser process for nuclear fusion has not yet been defined, lasers and optical devices used for nuclear fusion may soon contribute to the profits of their manufacturers.

In addition, laser communication, quantum technology, and the application of laser technology in the field of new energy are expected to see significant development and breakthroughs by 2025.

Source: Yangtze River Delta Laser Alliance

Ähnliche Empfehlungen
  • WVU engineers develop laser systems to protect space assets from the impact of Earth orbit debris

    The research from the University of West Virginia has been rewarded, as debris scattered in planetary orbits that pose a threat to spacecraft and satellites may be pushed away from potential collision paths by a coordinated space laser network.Hang Woon Lee, director of the Space Systems Operations Research Laboratory at the University of West Virginia, said that artificial debris dumps, including...

    2023-10-10
    Übersetzung anzeigen
  • Blue laser enterprise NUBURU obtains $5.5 million bridge financing

    Recently, NUBURU, a supplier of high-power and high brightness industrial blue laser technology in the United States, announced that it has reached bridge loan agreements ("bridge loans" or "bridge financing") with existing and new institutional investors.The principal of this bridge financing is $5.5 million, aimed at providing funding for the company until it obtains long-term credit financing,...

    2023-11-23
    Übersetzung anzeigen
  • Researchers use machine learning to optimize high-power laser experiments

    High intensity and high repetition lasers rapidly and continuously emit powerful bursts of light, capable of emitting multiple times per second. Commercial fusion energy factories and advanced compact radiation sources are common examples of systems that rely on such laser systems. However, humans are a major limiting factor as their response time is insufficient to manage such rapid shooting syst...

    2024-05-24
    Übersetzung anzeigen
  • Fujitsu collaborates to research and develop multi band wavelength fiber optic transmission technology

    Recently, Fujitsu and KDDI research company have successfully developed a high-capacity multi band wavelength multiplexing transmission technology using installed optical fibers.The new technology of the two companies can transmit wavelengths beyond the C-band by using batch wavelength conversion and multi band amplification technology.Expanding transmission capacity in remote areasTwo companies h...

    2023-12-05
    Übersetzung anzeigen
  • Shanghai Optics and Machinery Institute has made progress in femtosecond fiber lasers based on twisted Sagnac interferometer mode locking

    Recently, the research team of the Aerospace Laser Technology and System Department of the Shanghai Institute of Optics and Fine Mechanics, Chinese Academy of Sciences, proposed a torsional Sagnac interferometer and applied it to the fiber laser system, realizing mode locking self starting and pulse shaping. The relevant research achievements were published in the Journal of Lightwave Technology u...

    2024-04-22
    Übersetzung anzeigen