Italiano

EOS and AMCM will open a new UK Additive Manufacturing Excellence Center

730
2024-04-15 16:56:09
Vedi traduzione

The University of Wolverhampton (UK), along with global 3D printing leaders EOS and AMCM, will collaborate to establish a new Centre of Excellence (AM) for Additive Manufacturing in the UK. This partnership will provide cutting-edge technology from EOS and AMCM, and focus on developing advanced materials and processes for high demand applications in industries such as aerospace, automotive, aerospace, electronics, and quantum computing.

The center is partially funded by the Regional Innovation Fund (RIF) in the UK and will be located at the Elite Manufacturing Skills Center (ECMS) at the University of Wolverhampton Springfield campus. It will serve as a center for knowledge exchange and research commercialization activities, providing services to local, regional, and global clients in various fields.

Desire for innovation in additive manufacturing
The additive manufacturing research group and its spin off company Additive Analytics at the University of Wolverhampton will lead materials and process development activities. Industries from automobiles and electronics to quantum computing and aerospace have expressed interest and emphasized the widespread applicability of copper additive manufacturing in thermal management and electrification due to its excellent thermal and electrical performance.

Although copper has ideal properties, laser processing it poses challenges and hinders its widespread adoption in additive manufacturing. The alliance's work aims to address this issue by utilizing cutting-edge technology, processes, and expertise to improve efficiency and reduce material waste.

Decades of expertise in additive manufacturing
Building on a 20-year partnership between the University of Wolverhampton and EOS, the new Center of Excellence will be supported by the adoption of AMCM 290 FLX, the next-generation laser powder bed fusion system capable of handling challenging materials such as copper. The AMCM 290 FLX is a customized EOS M 290 machine equipped with the most advanced nLIGHT beam shaping laser technology, high-temperature processing capabilities, and excellent oxygen control. This system enables enterprises to obtain the latest technologies and research results as early as possible and easily.

Professor Arun Arjunan, Director of ECMS and Engineering Innovation and Research at the University of Wolverhampton, said, "The establishment of the UK Centre for Excellence in Copper Additive Manufacturing marks an important milestone in the field of additive manufacturing, laying the foundation for innovation, sustainable development, and responsible manufacturing in the new era. Future projects will explore the integration of laser processing data, machine learning, and artificial intelligence technology to achieve efficient material and laser processing development."

EOS UK Sales Manager Nathan Rawlings added, "The UK manufacturing industry has always driven and embraced innovation. Additive manufacturing using materials such as copper brings huge benefits to product designers, but may require high demands from manufacturers. This new center of excellence will create and test processes that can reliably and consistently achieve material benefits in the manufacturing of components in the real world."

Source: Laser Net

Raccomandazioni correlate
  • It is said that laser additive manufacturing is good, but what is the advantage?

    When it comes to additive manufacturing, some people may not have heard of it, but when it comes to its other name: 3D printing, no one is unaware.In fact, the name 'additive manufacturing' better illustrates the essence of this processing method. From ancient times to the present, humans have put in great effort to achieve the goal of processing 'raw materials into the shapes we need'. From the S...

    2023-11-08
    Vedi traduzione
  • Toronto research has discovered 21 new sources of organic solid-state lasers

    Organic solid-state lasers (OSLs) are expected to achieve widespread applications due to their flexibility, tunability, and efficiency. However, they are difficult to manufacture and require over 150.000 possible experiments to find successful new materials, and discovering them will be a work of several lifetimes. In fact, according to data from the University of Toronto in Canada, only 10-20 new...

    2024-05-22
    Vedi traduzione
  • MIT researchers have demonstrated a novel chip based resin 3D printer

    Researchers from the Massachusetts Institute of Technology and the University of Texas at Austin showcased the first chip based resin 3D printer. Their concept verification tool consists of a millimeter sized photon chip that emits a programmable beam of light into resin holes, which solidify into a solid structure when exposed to light.The prototype processor does not have mobile components, but ...

    2024-06-17
    Vedi traduzione
  • NSF funding for the world leading EP-OPAL laser multi mechanism design in Rochester

    The National Science Foundation (NSF) of the United States has awarded the University of Rochester nearly $18 million for three years to design and prototype key technologies for EP-OPAL, a new facility dedicated to studying the interaction between ultra-high intensity lasers and matter.After the design project is completed, the facility can be built at the Laser Energy Laboratory (LLE). This fund...

    2023-09-26
    Vedi traduzione
  • Professor Hu Yanlei from the University of Science and Technology of China, Nat Commun Preparation of Durable Janus Thin Films with Mode Switching by Femtosecond Laser

    Janus film is widely used in fields such as oil-water separation, water mist collection, and wearable patches due to its unique transmembrane directional water transport function. The function of traditional Janus thin films comes from the thickness direction of microchannels and single-sided chemical coating modifications (single-sided hydrophilic and hydrophobic modification of hydrophobic and h...

    2024-02-22
    Vedi traduzione