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Towards sympathetic cooling of trapped ions with laser-cooled Mg + ions for mass spectrometry and laser spectroscopy

机译:借助激光冷却的Mg + 离子实现共存离子的同质冷却,用于质谱和激光光谱

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Sympathetic cooling by laser cooled Mg ions has been proposed as a method for fast cooling of highly charged ions to a very low temperature. The paper describes the construction of the solid state laser system at 279.63 nm required for laser cooling of the Mg ions. The laser system is composed of a fiber laser at 1,118.54 nm and two successive second harmonic generation (SHG) ring cavities for frequency quadrupling. In the first SHG cavity, non-critical phase matching of a lithium triborate (LBO) crystal is used for doubling from 1,118.54 to 559.27 nm. The second SHG cavity uses critical phase matching of a β-barium borate (BBO) crystal for doubling from 559.27 to 279.63 nm. With the aid of Boyd–Kleinmann theory, optimum experimental parameters are calculated and used for an efficient SHG. Besides this, the paper intends to be a shortcut for practical applications of the Boyd–Kleinmann theory for SHG.
机译:已经提出了通过激光冷却的Mg离子的共鸣冷却作为将高带电离子快速冷却至非常低的温度的方法。本文介绍了激光冷却Mg离子所需的279.63 nm固态激光系统的结构。激光器系统由1,118.54 nm的光纤激光器和两个相继的二次谐波产生(SHG)环形腔组成,频率倍增。在第一个SHG腔中,三硼酸锂(LBO)晶体的非关键相位匹配用于从1,118.54 nm加倍到559.27 nm。第二个SHG腔使用β-硼酸钡(BBO)晶体的临界相位匹配,使其从559.27 nm倍增至279.63 nm。借助博伊德-克莱因曼理论,可以计算出最佳实验参数,并将其用于有效的SHG。除此之外,本文还打算成为博伊德-克莱因曼理论在SHG实际应用中的捷径。

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