Realizing 48.5 dB Gain in the E+S Band Using 12 m Bismuth-Doped Fiber

IF 7.2 2区 材料科学 Q1 MATERIALS SCIENCE, MULTIDISCIPLINARY
Shaokun Liu, Xiaoke Yin, Le He, Wenzhen Li, Yingbo Chu, Nengli Dai, Jinyan Li
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Abstract

Bismuth-doped fibers (BDFs) are renowned in wideband amplification due to their numerous gain bands, such as O, E, S, and U. However, the low amplification coefficient and excessive usage length hinder its further application, how to achieve a high amplification coefficient remains an unresolved challenge. In this study, a high-efficiency bismuth-doped germanosilicate fiber (BGDF) for E+S band amplification is developed using modified chemical vapor deposition (MCVD) combined with the solution doping technique. The BGDF achieves a gain of 48.5 dB using a length of only 12 m. The effects of bismuth active centers (BACs) and unsaturable loss (UL) determined by fiber drawing parameters and bismuth concentrations on amplification properties of the BGDFs are discussed. New observations and analysis are conducted on how variations in oxygen vacancies and the bismuth concentration impact BGDFs' luminescence intensity and lifetime. A successful optimization approach is devised to increase BACs levels and decrease UL by modifying drawing parameters and the bismuth concentration to facilitate the formation of low-valence bismuth and oxygen vacancies. The results suggest that BGDFs are significant for the future expansion of the gain band to the E+S band.

利用12米掺铋光纤在E+S波段实现48.5 dB增益
掺铋光纤(bdf)因其具有O、E、S和u等多个增益带而在宽带放大领域享有盛名,但其低放大系数和过长的使用长度阻碍了其进一步的应用,如何实现高放大系数仍然是一个未解决的挑战。本研究采用改性化学气相沉积(MCVD)技术与溶液掺杂技术相结合,制备了一种用于E+S波段放大的高效铋掺杂锗硅酸盐纤维(BGDF)。BGDF使用仅12米的长度实现48.5 dB的增益。讨论了铋活性中心(BACs)和由拉伸参数和铋浓度决定的不饱和损耗(UL)对BGDFs放大性能的影响。对氧空位和铋浓度的变化对BGDFs发光强度和寿命的影响进行了新的观察和分析。设计了一种成功的优化方法,通过改变拉伸参数和铋浓度来促进低价铋和氧空位的形成,从而提高BACs水平,降低UL。结果表明,BGDFs对未来增益带扩展到E+S带具有重要意义。
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来源期刊
Advanced Optical Materials
Advanced Optical Materials MATERIALS SCIENCE, MULTIDISCIPLINARY-OPTICS
CiteScore
13.70
自引率
6.70%
发文量
883
审稿时长
1.5 months
期刊介绍: Advanced Optical Materials, part of the esteemed Advanced portfolio, is a unique materials science journal concentrating on all facets of light-matter interactions. For over a decade, it has been the preferred optical materials journal for significant discoveries in photonics, plasmonics, metamaterials, and more. The Advanced portfolio from Wiley is a collection of globally respected, high-impact journals that disseminate the best science from established and emerging researchers, aiding them in fulfilling their mission and amplifying the reach of their scientific discoveries.
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