Determination of boron concentration in uranium fuel samples by ICP-OES following a separation step by cation exchange resin

被引:0
|
作者
Yan Luo [1 ]
Hai-Xia Cong [1 ]
Rong-Rong Cui [1 ]
Chang-Qing Cao [1 ]
Wei Zhou [1 ]
Zhong-Qi Zhao [1 ]
机构
[1] Shanghai Institute of Applied Physics, Chinese Academy of Sciences
关键词
Boron determination; ICP-OES; Boron evaporation; Memory effect; Matrix match method; Resin separation;
D O I
暂无
中图分类号
O657.31 [原子发射光谱分析法]; TL27 [核燃料的分析];
学科分类号
070302 ; 0805 ; 081704 ; 082702 ;
摘要
The boron content of uranium fuel samples with boron concentrations in the range of 0.05–10 μg/g was determined using inductively coupled plasma optical emission spectrometry(ICP-OES) after the uranium was separated by cation exchange. The samples were dissolved in 3 M HNOon a hot plate at 150℃ and evaporated to near dryness. The residues were redissolved in 0.2 M HNO-and passed through a column loaded with Dowex 50WX8-400 resin. Uranium was adsorbed on the resin,while boron was easily eluted with 0.2 M HNO. The boron content of the effluent was determined using ICPOES. Several strategies were employed to improve the reliability of the experimentally determined boron content.The addition of mannitol and proper control of the evaporation process were shown to be effective in preventing boron loss during sample dissolution and evaporation. The memory effect was eliminated by flushing the system with 1.5% ammonia for 30 s between successive sample runs,and the matrix match method was used to eliminate the matrix effect arising from mannitol during the ICP-OES analysis. The accuracy of the results of the analysis was determined by addition recovery tests and by comparison with the results of three Chinese certified reference materials(GBW04242, GBW04243, and GBW04232). Using the method we developed, the limit of detection for boron was as low as 0.05 μg/g in uranium fuel samples, and the relative standard deviations for 0.1–0.5 g uranium samples with 0.05–2 μg/g of boron were within 9%.
引用
收藏
页码:34 / 40
页数:7
相关论文
共 46 条
  • [41] Speciation of vanadium in water with quinine modified resin micro-column separation/preconcentration and their determination by fluorination assisted electrothermal vaporization (FETV)-inductively coupled plasma optical emission spectrometry (ICP-OES)
    Wu, YW
    Jiang, ZC
    Hu, B
    [J]. TALANTA, 2005, 67 (04) : 854 - 861
  • [42] A Rapid Method for Determining Boron Concentration (ID-ICP-MS) and δ11B (MC-ICP-MS) in Vegetation Samples after Microwave Digestion and Cation Exchange Chemical Purification
    Roux, Philippe
    Lemarchand, Damien
    Hughes, Harold J.
    Turpault, Marie-Pierre
    [J]. GEOSTANDARDS AND GEOANALYTICAL RESEARCH, 2015, 39 (04) : 453 - 466
  • [43] Determination of Rare Earth Elements, Zirconium, Hafnium, Thorium and Uranium in Ultramafic Rocks by ICP-MS after RE-UTEVA Resin Columns for Separation and Pre-Concentration
    Guan, Qiuyun
    Guo, Xudong
    Sun, Yali
    Liu, Xiaoming
    Zhao, Shouqian
    [J]. GEOSTANDARDS AND GEOANALYTICAL RESEARCH, 2024,
  • [44] Determination of trace amounts of elements in high-purity iron by ICP-MS after ion chromatographic separation using the cumulated bed of cation- and anion-exchange resin
    Fujimoto, K
    Shimura, M
    [J]. BUNSEKI KAGAKU, 2001, 50 (03) : 175 - 182
  • [45] An improved separation scheme for Sr through fluoride coprecipitation combined with a cation-exchange resin from geological samples with high Rb/Sr ratios for high-precision determination of Sr isotope ratios
    Liu, Wen-Gang
    Wei, Shuang
    Zhang, Jian
    Ao, Cong
    Liu, Fu-Tian
    Cai, Bin
    Zhou, Hong-Ying
    Yang, Ji-Long
    Li, Chao-Feng
    [J]. JOURNAL OF ANALYTICAL ATOMIC SPECTROMETRY, 2020, 35 (05) : 953 - 960
  • [46] An improved separation scheme for Sr through fluoride coprecipitation combined with a cation-exchange resin from geological samples with high Rb/Sr ratios for high-precision determination of Sr isotope ratios
    Liu, Wen-Gang
    Wei, Shuang
    Zhang, Jian
    Ao, Cong
    Liu, Fu-Tian
    Cai, Bin
    Zhou, Hong-Ying
    Yang, Ji-Long
    Li, Chao-Feng
    [J]. Journal of Analytical Atomic Spectrometry, 2020, 35 (05): : 953 - 960