谱线分裂

  • 网络spectral line splitting
谱线分裂谱线分裂
  1. 对谱线分裂成多条这一现象,波尔又一次沉默了。

    Again , the Bohr model silent about these splitting into multiple levels .

  2. 导出共振谱线分裂间隔与双轴相序参数之间的一般关系,从而讨论序参数实验测量的可能性。

    A general relationship between spectrum frequency splitting and biaxial order parameters is derived .

  3. 在核磁共振实验中,导出双轴向列相序参数与谱线分裂频率间的一般关系,并讨论序参数测量性的可能性。

    In nuclear magnetic resonance experiment , a general relation between order parameters and spectrum frequency splitting is derived , and possible experimental measurement is discussed .

  4. 讨论了原子分别在弱磁场和强磁场下的不同运动状态、磁相互作用能和谱线分裂情况,指出了某些教科书中对正常塞曼效应的表述所存在的矛盾。

    This paper discussed the atomic cases for the different state of motion , the energy of the magnetic interactions and the splitting of the spectral lines in weak and strong magnetic field respectively , indicated a contradictory of the expression for normal Zeeman effect in some textbooks .

  5. 在复合物中,由于分子NCSCH3(S2(CH3)2)对Mg~+离子的电子态3~2P的影响,导致了谱线的分裂。

    In these complexes , owing to NCSCH_3 ( S_2 ( CH_3 ) _2 ) molecule influence 3 ~ 2P electronic state of Mg ~ + , which results in the rupture of spectrums .

  6. 在10K→300K温度范围内测量了YGG:Cr~(3+)的激光诱导荧光光谱,测出了有关荧光谱线的分裂量。

    The fluorescence spectra of Cr3 + : YGG - crystals were studied at the temperatures ranging-from 10K to 300K with laser induced fluorescence method .

  7. 这样,我们就必然能看到谱线的分裂了。

    And , sure enough , we see the splitting .

  8. 磁场中原子谱线的分裂

    The Splitting of the Spectral Lines for Atom in the Magnetic Field

  9. 作者认为各谱线的分裂原因在于缀饰原子偶极矩之间的相互耦合。

    We suppose that the reason of the splitting lies in coupling of the dipole momentes of dressed atom .

  10. 并且谱线的分裂程度,和实验中所使用的磁场强度,是成比例的。

    And , furthermore , that the intensity of the splitting was proportional to the intensity of the applied magnetic field .

  11. 以简明的方式统一处理了塞曼效应、反常塞曼效应、帕邢-巴克效应以及中间强度均匀磁场下氢原子谱线的分裂、移动和强度计算等问题。

    This Zeeman effect under strong and weak field 、 Paschen-Back effect of hydrogen atom are treated by a united and concise approach .

  12. 在我们的系统中磁场可以加到10-2特斯拉量级,谱线的分裂在102MHz量级,可以满足激光冷却原子实验中移频的需要。

    The laser frequency is stabilized by absorption spectrum line of atoms in magnetic field . We show that magnetic field can be added up to 10-2T .

  13. 用基于波动方程、原子极化率和位相匹配条件建立起来的理论,对参量过程谱线的分裂和频移以及混频过程谱线波长和相对强度进行了分析计算。

    Splits and frequency shifts of the parametric oscillations and wavelengths and relative intensities of spectral lines in the wave-mixing processes are explained with a theoretical analysis based on the wave equation , atomic polarization and phase-match condition .

  14. 我们选择了一组参数,所得的理论计算能谱和谱线分裂,与实验值符合较好。

    The calculated energy levels and splittings coincide better with experimental values .

  15. 计算结果表明,随着光强的增加,谱线中心将分裂成双峰。

    The results show that a double-peak structure appears at the line center as the intensity of the incident light increases .

  16. 谱线精细结构分裂随着电子密度的增大而减小,随着电子温度的升高而增大。

    The discrepancy of the fine spectral splitting decreases with the increase of electron density , and increases with the increase of electron temperature .

  17. 讨论了功率谱的频率误差和谱线分裂问题。

    The problems of frequency error and spectra line splitting of the power spectrum are discussed .

  18. LS法比最大熵谱法(Burg法)具有更高的分辨率,而且可以避免谱线的分裂和减少谱线的偏移,从而得到更精确的结果。

    The improvements obtained from the LS algorithm over the maximum entropy algorithm ( Burg algorithm ) include higher resolution in the spectrum , less bias in the frequency estimate of spectral components , and absence of observed spectral line splitting .

  19. 这种自由基EPR谱特征的超精细结构是由一组两个等性的氮核、三组等性的质子所贡献。谱的超精细特征和谱线分裂的数目主要取决于氨基酸的结构。

    The hyperfine structure and splitting line numbers of EPR spectra of the free radical products depended mainly upon the structure of amino compounds , and could be assigned to the contributions of one set with two equivalent nitrogens and of three sets of equivalent protons .