Optical fibres could be changed by 3D printing technology


Glass printing on a small scale has been extended by several orders of magnitude by a team led by Dr. Yushi Chu and Professor Jianzhong Zhang of Harbin Engineering University and Professor Gang-Ding Peng of the University of New South Wales. Optical fibre preforms can be 3D printed, according to a study titled “Additive Manufacturing Fiber Preforms for Structured Silica Fibers with Bismuth and Erbium Dopants.”

Using DLP 3D printing technology, a centimeter-scale optical fibre preform was successfully created, and single-mode and multi-mode optical fibres were obtained by carefully controlling the parameters during the fibre drawing process. According to the research team, Bismuth ions and Erbium ions were added to the fibres in order to further extend this work. They figured out how to make fibres with multiple components and fibres with complex structures. IDTechEx’s 3D Printing Hardware 2022–2032: Technology and Market Outlook report has more information. 

Also read: JK Tyre introduces tyres with puncture guards for four-wheelers

3D printing technology’s ability to create complex fiber structures must be taken into account. reduced separation and integration time due to the demonstration of these additive capabilities. Dopants derived from five different elements were also introduced by the researchers. Bismuth, erbium, germanium, titanium, and aluminium were among the elements used. To enhance luminescence in the core glass network, Germanium, titanium, and aluminium were used to form waveguides. Under a single-wavelength excitation, bismuth and erbium provided the O-L band with broadband luminescence.

Fiber loss, considered to be the most important property limiting 3D printing optical fibre, was also discussed by the researchers as part of their experiments. In their experiments, they found that increasing core and cladding roundness resulted in better performance. It also helped to reduce fibre loss by reducing the amount of moisture in the optical fibre. Temperature and pressure can be carefully controlled during the fabrication process to achieve these results.

3D printing has the potential to revolutionize specialty optical fibres, allowing for new applications. In the future, society may see the development of multicore fibre fan-in/fan-out or ideal mode coupling in space division multiplexing without optical fibre splicing.

Also read: Kernel Flow Technology Feasibility Study Using Cybin-Sponsored Technology currently recruiting participants

Previous articleEquipment manufacturer Enar is acquired by Wacker Neuson
Next articleA $27 million development centre for Microsoft Africa is unveiled by President Kenyatta
Zaid Quraishi
My name is Zaid Quraishi. I pride myself on being a meticulous and organized individual who has done his Bachelors in Medical Technology and currently pursuing my Master's in the same course from Sher-e-Kashmir Institute of Medical Sciences. I belong to the beautiful valley of Kashmir, and my hometown is Srinagar. I am the elder sibling of my younger brother. As far as my strengths are concerned, I am effectively communicative, optimistic, reliable, a team player, and time-efficient. My weaknesses are that I am an honest person and I tend to be blunt, and sometimes, I like to work alone. I am passionate about content writing, online gaming, and learning new things, especially languages (currently German). I have written two papers for my University degree, which helped me immensely in learning how to write effectively. I am confident in my writing skills, and I can effectively pour my thoughts out in writing and express myself so that the reader relates to it and is intrigued by the content. I love to play with my pet cat, and she is a darling to me. The thing that I dislike the most is being distracted when you are in the zone. Currently, I am a content writer in a dynamic work environment at Shouzy, ready to improve readers' satisfaction and increase retention levels.


Please enter your comment!
Please enter your name here