空心阴极灯

  • 网络hollow cathode lamp;HCL;HCLs;HC-Lamp
空心阴极灯空心阴极灯
  1. 以镁空心阴极灯(HCL)为辐射光源,测定了202.6nm处H2S的分子吸收。

    Hollow cathode lamp ( HCL ) of magnesium was used as radiation source for measurement of H 2S at 202.6 nm .

  2. 利用空心阴极灯中的诱导荧光直接标定染料激光波长

    Direct calibration of laser wavelength using laser induced fluorescence in hollow cathode lamp

  3. 铅空心阴极灯发射出来的波长283.3nm的光穿过火焰,被火焰中的Pb气态基态原子吸收,然后检测其吸收信号。

    Then the lead atomic absorption signal was determined at 283.3 nm .

  4. 强短脉冲供电空心阴极灯激发的ICP原子荧光光谱研究

    High Current and Microsecond Duration Pulsed Hollow Cathode Lamp Excited Inductively Coupled Plasma Atomizer Atomic Fluorescence Spectrometry

  5. 报道了13种元素的19支单元素空心阴极灯(HCL)的发射光谱。

    In this paper , the emission spectra of 13 kinds of elements were determined on 19 single element hollow cathode lamps .

  6. 加长炬管中Ca,Sr,Ba,Eu,Yb的强短脉冲供电空心阴极灯激发电感耦合等离子体离子/原子荧光光谱

    High Current Microsecond Pulsed Hollow Cathode Lamp Excited Inductively Coupled Plasma Ionic Fluorescence Spectrometry of Eu , Yb , Ca , Sr and Ba with an Extended-sleeve Torch

  7. 简要介绍了北京海光仪器公司生产的AFS_2201型双道原子荧光光度计中的气路控制、温度控制和空心阴极灯电源的电路原理、常见故障及排除方法。

    In this paper , design principle , common troubles and trouble_shooting methods for gas and temperature control system , HCL power supplier in AFS_2201 double_channel atomic fluorescence spectrometer were described .

  8. 初步研究了碱土金属Ca,Sr,Ba的强短脉冲供电空心阴极灯(HCMPHCL)激发常规短炬管电感耦合等离子体离子荧光光谱(ICPIFS)。

    High current microsecond pulsed hollow cathode lamp ( HCMP-HCL ) excited ionic fluorescence spectrometry ( IFS ) of alkaline earth elements in inductively coupled plasma ( ICP ) with a Fassel-torch has been investigated .

  9. 利用单模半导体激光器激发Rb原子到5P3/2态,将Rb空心阴极灯发射的6D5/2→5P3/2的629.8nm线作为吸收线。

    Rb atoms were excited to the 5P3 / 2 level using a single-mode laser diode . The 5P3 / 2 state atom density was measured by the absorption of line from a Rb hollow-cathode lamp .

  10. 应用于原子荧光光谱分析的空心阴极灯-As灯电流与激发光强度及延时关系的研究

    The Study on the Relationship between Lamp Current of As Hollow Cathode Lamp and Exciting Light Intensity and Delay Time in Atomic Fluorescence Spectrometry

  11. 测定钙时,波长4228nm,空心阴极灯的工作电流3mA;

    For the determination of calcium , the used wavelength was 422 8 nm , and the current of HCL ( Hollow Cathode Lamp ) was 3 mA ;

  12. 方法采用岛津AA-670原子吸收分光光度仪及GFA-4A石墨炉,上海电光KY-1铂空心阴极灯,检测波长265.9nm,测定大鼠血浆和尿液中的赛特铂含量。

    METHODS Satraplatin in plasma and urine was analyzed by flameless atomic absorption spectrometry on an instrument Shimadzu AA-670 atomic absorption spectrophotometer equipped with a Shimadzu GFA-4A graphite furnace , and an ASC-60 autosampler . The detection wavelength was set at 265.9 nm .

  13. 介绍一种原子吸收光谱法空心阴极灯的替代用法

    Introduction to A Substitute for Atomic Absorption Spectrometry Hollow-cathode Lamp

  14. 脉冲空心阴极灯作为氢化物发生非色散原子荧光法的光源的研究

    Application of pulsed hollow-cathode lamp in hydride generation non-dispersive atomic fluorescence spectrometry

  15. 用荧光法在空心阴极灯中测定镨原子的超精细结构谱

    Measurement of Pri hyperfine structure spectra by fluorescence in hollow cathode discharge lamp

  16. 脉冲放电的空心阴极灯光谱研究

    Spectra investigation of pulsed discharge hollow cathode lamp

  17. 空心阴极灯中激光泵浦铥原子荧光谱的测量

    Measurement of Tm I fluorescence spectra pumped by laser in hollow cathode discharge lamp

  18. 矿井电致发光安全头灯充氘钯空心阴极灯中放电气体的质谱研究

    Studies on Mass Spectra of Discharging Gas in Palladium Hollow Cathod Lamp Filled With Deuterium

  19. 空心阴极灯中原子跃迁几率的相对测量

    Atomic transition probability measurement in HCD

  20. 空心阴极灯在强短脉冲供电时元素离子线的时间分辨光谱

    Time-resolved Emission Profile of Ionic Line From a Hollow Cathode Lamp Pulsed With Microsecond Duration and High Current

  21. 铬空心阴极灯可代替氘灯作为测定光源。

    A chromium hollow cathode lamp was used as a light source instead of the deuterium continuum source .

  22. 碱土金属的强短脉冲供电空心阴极灯激发常规炬管电感耦合等离子体离子荧光光谱初步研究

    High Current Microsecond Pulsed Hollow Cathode Lamp Excited Ionic Fluorescence Spectrometry of Alkaline Earth Elements in Inductively Coupled Plasma with a Fassel-Torch

  23. 发现部分元素的空心阴极灯发射线与其他元素的共振线或非共振线存在谱线重叠现象。

    The spectral overlap was discovered among emission lines of some elements and resonance lines or non - resonance lines of other elements .

  24. 探讨了以铁空心阴极灯作光源,火焰原子吸收法测定饮用水中微量锰。

    A determination of Trace Manganese in drink water by flame atomic absorption method using iron lamp as light resource has been investigated .

  25. 空心阴极灯激发的微波等离子体炬原子/离子荧光光谱研究&钙的原子/离子荧光光谱

    Atomic / Ionic Fluorescence in Microwave Plasma Torch Discharge with Excitation of High Current and Microsecond Pulsed Hollow Cathode Lamp : Ca Atomic / Ionic Fluorescence Spectrometry

  26. 文中用微波等离子体炬作离子/原子化器,强短脉冲供电空心阴极灯作激发源,进行了稀土元素的离子/原子荧光检测。

    Eu atomic and ionic fluorescence spectrometry in microwave plasma torch discharge excited by high current microsecond pulsed hollow cathode lamp ( HCMP HCL MPT AFS / IFS ) was studied .

  27. 在微机所选择的最佳条件下,脉冲空心阴极灯可以激发出砷、锑、铋及其他氢化物元素的强烈原子荧光,所测得的检出限可以与无电极放电灯的数据相媲美。

    The results show that with suitably selected conditions the pulsed hollow-cathode lamp ( PHCL ) can excite strong atomic fluorescence of As , Se , Te and other hydride-forming elements .

  28. 应用钙元素空心阴极灯中钙元素的422.7nm谱线和原子吸收分光光度计,对磷钒钼黄体系进行了研究,并对生铁样品中磷的含量进行了测定,获得满意的结果。

    The 422.7 nm spectral line emitted by the calcium hollow cathode lamp and the atomic absorption spectrophotometer are employed for the determination of phosphorus by molecular absorption in the phosphorus molybdenum system . The method has been used for the determination of phosphorus in pig iron samples satisfactorily .

  29. 本文报导用脉冲光电流效应观察发生在直流放电的商品Na/Ne和Nd/Ne空心阴极放申灯中的Ne和Na的一些双光子过程,指出不少多光子过程都可以用这种方法来探测。

    Some two-photon processes of Ne and Na in Na / Ne and Nd / Ne hollow cathode discharge lamps were probed by using the pulse optogalvanic effect . It is pointed out that a lot of multiphoton processes may be measured by using this method .

  30. 本文介绍了空心阴极光源在发射光谱分析中用于测定痕量元素的特点,供电电源的种类,空心阴极灯及电极,载气的选择等。

    This paper reports the features to determining trace amount elements for the hollow cathode discharge source in emission spectrometry analysis . The sorts of power source , the hollow cathode lamp and the electrode and the selection of carrier gas were discussed .