Light Science & Applications · 2012 · 346 citations · 34 references
Natural SciencesMaterials SciencePhysicsOptical MaterialsOpticsPhotonicsFiber OpticsLuminescent MaterialsOptical AmplifiersOptical FibersOptical Properties Of MaterialsOptical SourcesBismuth-doped Fiber AmplifiersDoped Fiber MaterialsFiber LasersLasersLight-emitting DevicesLight-emitting MaterialsOptical Gain Materials
Bi‑doped glass optical fibers have emerged as a promising active medium for near‑IR lasers and amplifiers, with diverse fiber types developed for the 1150–1550 nm band and applications ranging from optical communications to medicine and astrophysics. The paper reviews recent findings on the luminescence properties and light‑emitting mechanisms of Bi‑doped fibers and the progress toward constructing lasers and amplifiers operating between 1150 and 1550 nm. The review examines the luminescence mechanisms of.
It has recently been demonstrated that Bi-doped glass optical fibers are a promising active laser medium. Various types of Bi-doped optical fibers have been developed and used to construct Bi-doped fiber lasers and optical amplifiers. This paper reviews the recent results regarding the luminescence properties of various Bi-doped optical fibers and the development of Bi-doped fiber lasers and optical amplifiers for the 1150 to 1550 nm spectral region. Optical fibers with the bismuth show promise for developing efficient fiber lasers and amplifiers in extended bands of near IR region, in particular, through a whole spectral range of 1150–1550 nm. Devices capable of operating in this region are required for applications in advanced optical communications, medicine and astrophysics, among others. In this paper, Evgeny Dianov from the Fiber Optics Research Center of the Russian Academy of Sciences in Moscow reviews the luminescent properties and light-emitting mechanisms of bismuth-doped fibres and the progress made towards constructing lasers and amplifiers from such fibers. In particular, the author describes a laser emitting at 1460 nm with a conversion efficiency of 50%, and an amplifier with a peak gain of 24 dB at 1427 nm, a 3 dB bandwidth of 36 nm and a noise figure of 6 dB.
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Evgenii M Dianov, V.V. Dvoyrin, V.M. Mashinsky et al. · Quantum Electronics · 2005 · 340 citations
Natural Sciences, Materials Engineering, Materials Science +14
I. A. Bufetov · Laser Physics Letters · 2009 · 279 citations
Discussion on the origin of NIR emission from Bi-doped materials
Mingying Peng, Guoping Dong, Lothar Wondraczek et al. · Journal of Non-Crystalline Solids · 2010 · 203 citations