Energy level analyses of even-parity J=1 and 2 Rydberg states of Sn I by multichannel quantum defect theory

This paper analyzes the energy levels along the even-parity J=1 and 2 Rydberg series of Sn I by multichannel quantum defect theory. A good agreement between theoretical and experimental energy levels was achieved. Below 59198 cm~(-1), a total of 85 and 23 new energy levels, respectively, in the J=1 and J=2 series, which cannot be measured previously by experiments, are predicted in this work. Based on the calculated admixture coefficients of each channel, interchannel interactions were discussed in detail. The results are helpful to understand the characteristics of configuration interaction among even-parity levels in Sn I.

This paper analyzes the energy levels along the even-parity J=1 and 2 Rydberg series of Sn I by multichannel quantum defect theory. A good agreement between theoretical and experimental energy levels was achieved. Below 59198 cm~(-1), a total of 85 and 23 new energy levels, respectively, in the J=1 and J=2 series, which cannot be measured previously by experiments, are predicted in this work. Based on the calculated admixture coefficients of each channel, interchannel interactions were discussed in detail. The results are helpful to understand the characteristics of configuration interaction among even-parity levels in Sn I.

于2010-11-23批量导入

zhangdi于2010-11-23 12:59:39导入数据到SEMI-IR的IR

Made available in DSpace on 2010-11-23T04:59:39Z (GMT). No. of bitstreams: 1 3620.pdf: 806080 bytes, checksum: d47feeac7be3d50a7cc4fd74a6f1e19d (MD5) Previous issue date: 2009

the Major State Basic Research Program of China

Key Laboratory of Nuclear Resources and Environment (East China Institute of Technology),Ministry of Education;School of Nuclear Engineering and Technology, East China Institute of Technology;Institute of Semiconductors,Chinese Academy of Sciences

the Major State Basic Research Program of China