Polski

Additive manufacturing of free-form optical devices for space use

503
2023-12-04 14:09:54
Zobacz tłumaczenie

A group of researchers and companies are using the iLAuNCH Trailblazer program to develop and identify new optical manufacturing processes and materials for space flight applications, and demonstrating them in space cameras.

The University of South Australia, together with SMR Australia and VPG Innovation, will utilize an emerging optical manufacturing technology called freeform optics, which is now possible due to the emergence of suitable additive manufacturing techniques.

Freeform surface optical devices, such as reflectors, can now be designed and additive manufactured to present complex shapes, provide a larger field of view in smaller packaging sizes, and withstand harsh space environments.

Innovation Launch, Automation, New Materials, Communications, and Hypersonic Center Pioneer is a $180 million program aimed at commercializing the project to build Australia's space capabilities.

Darin Lovett, Executive Director of iLAuNCH Trailblazer, stated, "This project showcases the full content of iLAuNCH, using the 2021 Defense Innovation Partnership concept demonstrator, which investigates the feasibility of free-form optical components for small satellites and uses Australian technology to put them into production for real-world applications.".

An important requirement in the development of free-form optical devices is to be able to process additive manufactured parts to the extent that mirror finish can be developed.

Dr. Kamil Zuber, Senior Researcher at the University of South Australia, said, "We are developing optical grade finishes for additive substrates for satellite optical components.".

"We will also demonstrate the coating system for reflective optical components used in space applications."
Our project partners located in Adelaide, advanced manufacturer VPG Innovation, and mirror and camera system expert SMR Australia, have long-term experience in traditional and additive manufacturing, as well as product development in the automotive and defense sectors.

The additive manufacturing, molding, and vacuum coating capabilities of our partners make commercial production of developed products possible.
Dr. Bastian Stoehr, Senior Design Engineer at SMR Australia, stated that the company will contribute its advanced injection molding and coating expertise to the project.

Dr. Stoehr said, "More than a decade of collaboration has shown that the synergy between UniSA's research and Motherson's manufacturing capabilities brings greater results than the sum of its parts.".

The addition of St ä rke AMG's innovation focus will ensure that this joint venture not only drives South Australia to play a crucial role in space technology, but also reflects the true essence of cooperation.

Our joint efforts will redefine the possibilities of additive manufacturing and free-form surface optics, with the potential to have a transformative impact on the future of space exploration. When we contribute our efforts, we are not only driving technological progress, but also shaping a future that makes South Australia synonymous with cutting-edge value-added manufacturing.

Al Jawhari, co-founder and CEO of St ä rke AMG, stated that additive manufacturing has a transformative power and may actively reshape the manufacturing industry.
We are proud to lead these efforts in providing innovative satellite optical design and manufacturing for Earth observation and other critical applications.
We are working together to create a future where free-form optics will redefine the possibilities of space missions.

Source: Laser Net

Powiązane rekomendacje
  • Top management changes at Laser Photonics Corp., a US laser equipment manufacturer

    Recently, Laser Photonics Corp. (LPC), a Nasdaq listed equipment developer, announced that it has appointed John T. Armstrong as its new Executive Vice President. Before assuming his position at LPC, Armstrong served as Vice President of Astronics Test Systems, a subsidiary of Astronics Corporation, a global leader in advanced technology and products in critical mission areas such as aerospace a...

    2024-11-20
    Zobacz tłumaczenie
  • Tianjin University's Photoacoustic Remote Sensing Microscopy Technology Breakthrough New Heights

    Recently, Professor Tian Zhen's team from Tianjin University has made a breakthrough in the field of photoacoustic remote sensing microscopy technology and successfully developed a new type of non-destructive testing method. This technology uses Kaplin high-power femtosecond laser as the key light source, further optimizing the solution to the internal flaw detection limitations of inverted chips,...

    2024-04-16
    Zobacz tłumaczenie
  • Generating dark and entangled states in optical cavities: unlocking new possibilities in quantum metrology

    Physicists have been working hard to improve the accuracy of atomic clocks, which are the most precise timing devices currently available. A promising way to achieve higher accuracy is to utilize spin squeezed states in clock atoms.Spin squeezed states are entangled quantum states in which particles work together to counteract their inherent quantum noise. These states provide incredible potential...

    2024-02-20
    Zobacz tłumaczenie
  • Shanghai Optics and Machinery Institute has made new progress in laser welding of new high-temperature nickel based alloys

    Recently, the research team of Yang Shanglu from the Laser Intelligent Manufacturing Technology R&D Center of the Chinese Academy of Sciences Shanghai Institute of Optics and Precision Machinery has made new progress in laser welding of new structural materials for high-temperature molten salts. The research team used a high-power laser for the first time to achieve defect free welding of nick...

    2023-09-01
    Zobacz tłumaczenie
  • The latest progress in laser chip manufacturing

    Modern computer chips can construct nanoscale structures. So far, only these tiny structures can be formed on top of silicon chips, but now a new technology can create nanoscale structures in a layer beneath the surface. The inventor of this method stated that it has broad application prospects in the fields of photonics and electronics, and one day, people can manufacture 3D structures on the ent...

    2024-07-29
    Zobacz tłumaczenie