Incorporating Er:YAP Microcrystals Into Tellurite Fiber Using Volumetric Interface Doping

Abstract In this semi‐quantitative study, laser crystal microparticles which are potentially capable of generating mid‐infrared (MIR) light are incorporated into MIR transmitting optical fibers using a volumetric interface doping technique that combines interface doping with volumetric doping. Using confocal microscopy with a refractive index matching fluid, the Er:YAP microcrystals (MCs) inside the tellurite glass fiber are observed based on the detection of the green upconversion fluorescence emission of Er 3+ ions, produced under excitation at 976 nm and localized at the central region within the fiber. The key outcome from this proof‐of‐concept study is that MC particles that are fused with the glass during the fiber drawing process survived heat treatment because the MC particles are exposed for a short time to a glass fluid with high viscosity of ≈10 5 Pa.s, which prevented the glass from exerting a dissolution effect. The survival of the MCs demonstrated the viability of the doping technique for fabricating fibers with exotic crystal‐glass combinations for applications including good refractive index matching across the pump and lasing bands of rare earth ions. This latter parameter provides significant particle size flexibility whilst minimizing additional loss from scattering especially at MIR wavelengths where the MC diameter‐to‐wavelength ratio becomes smaller.

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Publication Details

Journal
Advanced Optical Materials
Published
2024-10-22
DOI
https://doi.org/10.1002/adom.202401536
Citations
3
Primary Topic
Glass properties and applications
Type
article
Field-Weighted Citation Impact
0.70

Funders

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article

Incorporating Er:YAP Microcrystals Into Tellurite Fiber Using Volumetric Interface Doping

Jobaida Akhtar, YunLe Wei, Yiqing Lu, Stuart D. Jackson et al.
3 citations
Advanced Optical Materials
Glass properties and applications
0.70
article

Incorporating Er:YAP Microcrystals Into Tellurite Fiber Using Volumetric Interface Doping

Jobaida Akhtar, YunLe Wei, Yiqing Lu, Stuart D. Jackson, Heike Ebendorff‐Heidepriem, Peng Ren, Jinho Lee
article en
3 citations

Abstract

Abstract In this semi‐quantitative study, laser crystal microparticles which are potentially capable of generating mid‐infrared (MIR) light are incorporated into MIR transmitting optical fibers using a volumetric interface doping technique that combines interface doping with volumetric doping. Using confocal microscopy with a refractive index matching fluid, the Er:YAP microcrystals (MCs) inside the tellurite glass fiber are observed based on the detection of the green upconversion fluorescence emission of Er 3+ ions, produced under excitation at 976 nm and localized at the central region within the fiber. The key outcome from this proof‐of‐concept study is that MC particles that are fused with the glass during the fiber drawing process survived heat treatment because the MC particles are exposed for a short time to a glass fluid with high viscosity of ≈10 5 Pa.s, which prevented the glass from exerting a dissolution effect. The survival of the MCs demonstrated the viability of the doping technique for fabricating fibers with exotic crystal‐glass combinations for applications including good refractive index matching across the pump and lasing bands of rare earth ions. This latter parameter provides significant particle size flexibility whilst minimizing additional loss from scattering especially at MIR wavelengths where the MC diameter‐to‐wavelength ratio becomes smaller.

Advanced Optical MaterialsVol. 12(33)
The University of Adelaide (AU), Macquarie University (AU)
Australian Research Council
Openalex Percentile: Top 41%
Glass properties and applications
0.70
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