English

ELI and LLNL strengthen transatlantic large-scale laser cooperation

58
2025-07-09 10:33:21
See translation

Lawrence Livermore National Laboratory (LLNL) and the Extreme Light Infrastructure (ELI) European Research Infrastructure Consortium (ERIC) have announced that they have signed a new Memorandum of Understanding. This builds on their existing decade of strategic collaboration to advance high-power laser technology.

“We are looking forward to expanding our existing collaborations with ELI on areas such as ultrabright high-repetition-rate sources for enhanced radiography, fusion and plasma physics research,” said James McCarrick, LLNL program director for High Energy Density and Photon Systems.

“This includes developing technologies with multiple applications such as high-repetition-rate target systems and diagnostics that can survive sustained operation close to one of the highest intensity and highest average power lasers in the world.”

ELI and LLNL have a long-standing partnership that began with LLNL building and delivering the L3 HAPLS (High-Repetition-Rate Advanced Petawatt Laser System) to the ELI Beamlines Facility near Prague in the Czech Republic. L3 HAPLS is designed to deliver petawatt-class pulses with energy of at least 30 joules and durations below 30 femtoseconds, at a 10 Hz repetition rate.

The system is already extensively used, capitalizing on its reliability and high repetition rate, while a clear plan is in place to continue ramping up its performance toward the full technical design parameters. These capabilities are essential for driving secondary sources like electrons, ions and x-rays, and for advancing the understanding of laser-plasma interactions.

The L3 HAPLS is a central feature of ELI's scientific offerings and provides a powerful tool for exploring high-intensity laser experiments with relevant applications to fields like materials science, medical therapy and non-destructive analysis. It is also particularly well suited for exploratory research in laser-driven fusion.

ELI as ‘proving ground’
ELI also has already acted as a proving ground for LLNL machine learning and optimization technologies. Last year, LLNL researchers performed an experiment in cooperation with ELI staff that integrated machine learning and optimization technologies to enhance the performance of the L3 system. This effectively boosted precision and efficiency, paving the way for even greater advancements in high-power laser experiments and research. The success of this experiment opens new avenues in laser-plasma interaction physics.

The close cooperation with the U.S. scientific user community is evident in the growing demand for ELI’s facilities within the framework of ELI’s user program. With experiment proposal submissions increasing and a rising user base, the U.S. stands out as the country with the third-highest number of proposals in the past five mission-based access calls. This underscores the significance of transatlantic cooperation in advancing laser science and highlights the strong and ongoing engagement of U.S.-affiliated researchers in ELI’s user program.

“We are pleased to see the active engagement of U.S.-based researchers in experiments at ELI, leveraging the advanced technology, including the L3 HAPLS system,” said Allen Weeks, ELI ERIC Director General. “This collaboration exemplifies the strength of international partnerships in driving forward scientific research and technological advancements. Together ELI and LLNL are shaping the future of laser science.”

The new agreement lays the foundation for the exchange of staff, internship opportunities for students and postdocs and fostering a culture of knowledge-sharing and intellectual collaboration. These initiatives will not only strengthen the ties between the two institutions but also expand the scope of joint research initiatives. Through this continued collaboration, ELI and LLNL are committed to addressing the challenges of tomorrow and shaping the future of laser science and technology.

Source: optics.org

Related Recommendations
  • Scientists plan to build particle accelerator to power giant chip factory

    Scientists are exploring new ways to get around limitations on the lithography machines used to produce microchips. Researchers are using particle accelerators to create new laser sources that could lay the foundation for the future of semiconductor manufacturing.Plans are underway to build a particle accelerator with a circumference between 100 and 150 meters (328 and 492 feet), about the size of...

    2023-09-25
    See translation
  • Application of Multipurpose Femtosecond Laser Interferometry in High Precision Silicon Nanostructures

    Researchers from the Laser Processing Group of the IO-CSIC Institute of Optics in Spain report on the application of multi-purpose femtosecond laser interference in high-precision silicon nanostructures. The related research was published in Optics&Laser Technology with the title "Versatile femtosecond laser interference pattern applied to high precision nanostructured of silicon".Highlights:...

    2024-07-10
    See translation
  • Overview: High throughput preparation of alloy composition design in additive manufacturing

    Researchers from the New Materials Technology Research Institute of Beijing University of Science and Technology and the Beijing Modern Transportation Metal Materials and Processing Laboratory reported a review of high-throughput preparation of alloy composition design in additive manufacturing. The relevant research is titled "High throughput preparation for alloy composition design in additive m...

    2024-07-08
    See translation
  • Ruifeng high power ultraviolet laser will become an indispensable tool in the production of thin film solar cells in the future

    With the rise of clean energy and the enhancement of environmental awareness, thin film solar cells are gradually replacing traditional silicon-based solar cells as an efficient energy conversion device.However, to achieve efficient solar cell conversion rates, the key is to ensure that thin film solar cells have clear edges and maximize light absorption. In this regard, the unique advantages of h...

    2023-09-08
    See translation
  • Amada launches latest precision laser welding workstation wl-300a

    Recently, Amada weld tech Inc., a Japanese supplier of welding and cutting solutions, grandly launched a new wl-300a precision laser welding workstation, which is equipped with advanced continuous wave (CW) or quasi continuous wave (QCW) fiber lasers. It has a wide range of applications, especially for metal welding and processing of selected plastic materials, especially in the aerospace field.Wl...

    2024-05-31
    See translation