Technologies and Applications of Large Core Optical Fibers

A special issue of Photonics (ISSN 2304-6732).

Deadline for manuscript submissions: closed (29 February 2024) | Viewed by 3139

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1. Top Management, JSC "Scientific Production Association State Optical Institute Named after Vavilov S.I.", 36/1, Babushkin Street, 192171 St. Petersburg, Russia
2. Department of Communication Lines, Povolzhskiy State University of Telecommunications and Informatics, 23, Lev Tolstoy Street, 443010 Samara, Russia
Interests: few-mode effects in large-core optical fibers; laser-based high bit rate data transmission over multimode optical fibers; management of differential mode delay; mode division multiplexing; few-mode optical fibers; fiber optic sensors based on a few-mode effects; few-mode chiral optical fibers; few-mode microstructured optical fibers; optical angular moment/optical vortices generation and transmission over optical fibers
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Department of Telecommunication Systems, Ufa University of Science and Technology, 32, Zaki Validi street, Ufa 450076, Russia
Interests: few-mode optical fibers; nonlinear fiber optics; mode division multiplexing; orbital angular momentum; integrated photonics; optical sensors; numerical photonics

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Department of Radiophotonics and Microwave Technologies, Kazan National Research Technical University Named after A. N. Tupolev — KAI, 10, Karl Marks Str., Kazan 420111, Russia
Interests: optical fibers for special applicaions; microstructured optical fibers; optical transmission lines based on few-mode effects; fiber bragg grating; adressed fiber bragg structures; fiber bragg structures manufacturing technologies; fiber optic sensors; microwave photonics

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Department of Electronics and Communication Engineering, Manipal University Jaipur, Dehmi Kalan, Off Jaipur – Ajmer Expressway, Ajmer Road, Jaipur 303007, Rajasthan, India
Interests: fiber optics; special optical fibers; photonic crystal fibers; nonlinear optics; quantum opitcs; numerical modeling; micro/nano-structure photonic devices; photonic ICs
Special Issues, Collections and Topics in MDPI journals

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Department of Radiophotonics and Microwave Technologies, Kazan National Research Technical University named after A.N. Tupolev, 420111 Kazan, Russia
Interests: non-linear Schrödinger equation; coupled non-linear Schrödinger equations; fiber Bragg gratings; address and multicast fiber Bragg gratings; microwave photonics; combined fiber sensors; microwave photonics methods of fiber Bragg gratings interrogation; fiber Bragg gratings sensors arrays; fiber optic sensors; advanced sensor technologies; optical vector analyzers; microwave photonics methods for optical vector analyzers; distributed and quasi-distributed fiber sensors system; fiber optic sensors and combined sensors calibration; mathematical modelling

Special Issue Information

Dear Colleagues,

Nowadays, the laser-excited optical signal transmission technique over large-core silica optical fibers has found widespread use in various applications. When this technique is combined with special launching conditions, it provides a few-mode regime. Here, laser-excited optical emission is transferred over large-core optical fiber by some limited number of guided modes. Conversely, under the multimode regime, the transmitted optical signal contains almost all guided modes, satisfying the cut-off conditions. Since the ratification of the IEEE 802.3z standard in 1998, the laser-based optical signal transmission technique over MMFs started to find widespread use in short-range multi-gigabit solutions, and began to be in demand for on-board and industrial network applications, requiring 1 Gb/s and even greater bit rates. In this application, silica MMFs are utilized with extremely enlarged core diameters up to 100 mm as well as silica–polymer or polymer–polymer MMFs.

Today, MMFs and few-mode optical fibers (FMFs) are also considered as being an alternative solution to new-generation transport networks, providing extra-high bit rates of hundreds Tb/s and more. Here, the nonlinear effects occurring in standard silica singlemode optical fibers during the propagation of optical signals grouped by DWDM systems become the main issue and constitute a passage to enhancing the fiber-effective area by core diameter enlargement in combination with the use of the MIMO technique. This is one of the approaches to decreasing or even suppressing optical fiber nonlinearity for use in telecommunication system signals. At the present time, mode division multiplexing (MDM) is one of the new top trends in optical networking and applies spatial mode or optical angular moments (OAMs) multiplexing. Moreover, MMFs and FMFs have many applications outside telecommunications: fiber optic sensors, medicine, fiber optic lasers / laser delivery systems, light source for illumination, endoscopes, remote viewing, and other areas. A few-mode regime adds a new another dimension to the space of parameters: it is associated with guided modes of a particular order, which mostly limits the number (from two to a few dozens) transfer of optical signal power over the tested optical fiber. Therefore, the discovered new multi- and few-mode effects, as well as the utilization and customization of known multi- and few-mode regimes for specified applications in telecommunications, sensorics, medicine, fiber-optic lasers/laser delivery systems, light sources for illumination, endoscopes, remote viewing and other matters, are the key areas in the presented Special Issue. This publication will cover a large scope of research in the area of multi- and few-mode effects in optical fibers, including topics of:

  • MMFs and FMFs for telecommunications;
  • MDM / SDM technique for optical networking;
  • MIMO technique for optical networks with MMFs and FMFs;
  • laser optimized multimode optical fibers;
  • FMFs / multicore FMFs;
  • laser-based multi-Gigabit data transmission over large core optical fibers;
  • fiber optic sensors based on a few-mode effects;
  • extremely enlarged core optical fibers;
  • MMFs and FMFs in medicine;
  • MMFs and FMFs in lasers / laser delivery systems;
  • image transmission over MMFs and FMFs;
  • chiral MMFs and FMFs;
  • microstructured and photonic crystal MMFs and FMFs;
  • polymer optical fibers and microstructured polymer optical fibers.

Prof. Dr. Anton Bourdine
Dr. Ruslan Kutluyarov
Dr. Artem A. Kuznetsov
Prof. Dr. Manish Tiwari
Dr. Airat Zh. Sakhabutdinov
Guest Editors

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Published Papers (2 papers)

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10 pages, 4105 KiB  
Article
Refractivity of P2O5-Al2O3-SiO2 Glass in Optical Fibers
by Mikhail E. Likhachev, Tatiana S. Zaushitsyna, Vitaliya A. Agakhanova, Liudmila D. Iskhakova, Svetlana S. Aleshkina, Mikhail M. Bubnov, Alexey S. Lobanov and Denis S. Lipatov
Photonics 2023, 10(12), 1383; https://doi.org/10.3390/photonics10121383 - 15 Dec 2023
Cited by 1 | Viewed by 1306
Abstract
A significant change in the refractive index profiles for the large mode area phosphoroaluminosilicate (PAS) core optical fibers was observed in comparison to that in preforms. This study shows that the refractive index of the PAS core can vary from negative (in preform) [...] Read more.
A significant change in the refractive index profiles for the large mode area phosphoroaluminosilicate (PAS) core optical fibers was observed in comparison to that in preforms. This study shows that the refractive index of the PAS core can vary from negative (in preform) to positive (in fiber), and the difference in the refractive index between the core and preform can exceed a few thousand. By measuring a large set of fibers with different concentrations of P2O5 and Al2O3, we define the refractivity of each dopant (P2O5, Al2O3 and AlPO4 joint) after drawing fiber from the preform and discuss the possible origin of the observed refractive index variation. Full article
(This article belongs to the Special Issue Technologies and Applications of Large Core Optical Fibers)
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17 pages, 7679 KiB  
Article
Twisted Silica Few-Mode Hollow GeO2-Doped Ring-Core Microstructured Optical Fiber
by Anton V. Bourdine, Vladimir V. Demidov, Egishe V. Ter-Nersesyants, Grigori A. Pchelkin, Dmitriy N. Shurupov, Alexander V. Khokhlov, Alexandra S. Matrosova, Andrey I. Kashin, Sergei V. Bureev, Michael V. Dashkov, Alexander S. Evtushenko, Elena S. Zaitseva, Azat R. Gizatulin, Ivan K. Meshkov, Amogh A. Dyavangoudar, Ankur Saharia, Manish Tiwari, Alexander A. Vasilets, Vasiliy S. Elagin, Ghanshyam Singh and Konstantin V. Dukelskiiadd Show full author list remove Hide full author list
Photonics 2023, 10(7), 846; https://doi.org/10.3390/photonics10070846 - 21 Jul 2023
Cited by 5 | Viewed by 1476
Abstract
This work presents the first instance of a silica few-mode microstructured optical fiber (MOF) being successfully fabricated with a hollow GeO2-doped ring core and by strongly inducing twisting up to 790 revolutions per meter. Some technological issues that occurred during the [...] Read more.
This work presents the first instance of a silica few-mode microstructured optical fiber (MOF) being successfully fabricated with a hollow GeO2-doped ring core and by strongly inducing twisting up to 790 revolutions per meter. Some technological issues that occurred during the manufacturing of the GeO2-doped supporting elements for the large hollow cores are also described, which complicated the spinning of the MOFs discussed above. We also provide the results of the tests performed for the pilot samples—designed and manufactured using the untwisted and twisted MOFs described above—which were characterized by an outer diameter of 65 µm, a hollow ring core with an inner diameter of 30.5 µm, under a wall thickness of 1.7 µm, and a refractive index difference of Δn = 0.030. Moreover, their geometrical parameters, basic transmission characteristics, and the measurements of the far-field laser beam profile patterns are also provided. Full article
(This article belongs to the Special Issue Technologies and Applications of Large Core Optical Fibers)
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