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首页> 外文期刊>Physical Review, A >Resonance ionization spectroscopy of sodium Rydberg levels using difference frequency generation of high-repetition-rate pulsed Ti:sapphire lasers
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Resonance ionization spectroscopy of sodium Rydberg levels using difference frequency generation of high-repetition-rate pulsed Ti:sapphire lasers

机译:使用高重复频率脉冲Ti:蓝宝石激光器的差频生成,对里德堡钠水平进行共振电离光谱

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摘要

The generation of tunable laser light in the green to orange spectral range has generally been a deficiency of solid-state lasers. Hence, the formalisms of difference frequency generation (DFG) and optical parametric processes are well known, but the DFG of pulsed solid-state lasers was rarely efficient enough for its use in resonance ionization spectroscopy. Difference frequency generation of high-repetition-rate Ti: sapphire lasers was demonstrated for resonance ionization of sodium by efficiently exciting the well-known D-1 and D-2 lines in the orange spectral range (both approximate to 589 nm). In order to prove the applicability of the laser system for its use at resonance ionization laser ion sources of radioactive ion beam facilities, the first ionization potential of Na was remeasured by three-step resonance ionization into Rydberg levels and investigating Rydberg convergences. A result of E-IP = 41449.455(6)(stat)(7)(sys) cm(-1) was obtained, which is in perfect agreement with the literature value of E-IP(lit) = 41449.451(2) cm(-1). A total of 41 level positions for the odd-parity Rydberg series nf(2)F(5/2,7/2)(0), principal quantum numbers of 10 <= n <= 60 were determined experimentally.
机译:在绿色到橙色光谱范围内的可调激光的产生通常是固态激光器的不足。因此,差分频率生成(DFG)和光学参数过程的形式主义是众所周知的,但是脉冲固态激光器的DFG很少有效地用于共振电离光谱。通过有效激发橙色光谱范围(均约589 nm)中众所周知的D-1和D-2谱线,证明了高重复频率的Ti:蓝宝石激光器的差频生成可钠的共振电离。为了证明该激光系统适用于放射性离子束设施的共振电离激光离子源,通过三步共振电离到Rydberg能级并研究Rydberg会聚来重新测量Na的第一电离势。获得E-IP = 41449.455(6)(stat)(7)(sys)cm(-1)的结果,这与E-IP(lit)= 41449.451(2)cm的文献值完全吻合(-1)。实验确定了奇数奇偶Rydberg级数nf(2)F(5 / 2,7 / 2)(0)的41个能级位置,主量子数为10 <= n <= 60。

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