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NH2Cl |
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PDF |
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Nitrogen and Chlorine
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Nuclear
Quadrupole Coupling Constants |
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in Monochloroamine |
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Calculation of nitrogen
and chlorine nqcc's in monochloroamine was made on the substitution molecular
structure of Cazzoli et al. [1].
These are compared with the experimental nqcc's [1,2] in Tables 1-12. Structure parameters are given in Table 13. |
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Calculation was made also on a structure given by MP2/aug-cc-pVTZ(G03) optimization. These results are shown here. |
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In Tables 1 and 7, subscripts a,b,c refer to the principal axes of the inertia
tensor, subscripts x,y,z to the principal axes of the nqcc tensor.
The nqcc y-axis is chosen coincident with the inertia b--axis, these
are perpendicular to the Cs plane of the molecule. Ø (degrees)
is the angle between its subscripted parameters. ETA = (Xxx
- Xyy)/Xzz. |
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In Tables, 1 - 12, RMS is the root mean square
difference between calculated and experimental nqcc's (percentage of
average experimental nqcc). RSD is the residual standard deviation
of calibration of the model for calculation of
the nqcc's. |
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Table 1. 14N
nqcc's in NH235Cl (MHz). Calculation was made on the substitution structure of Cazzoli et al. |
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Calc. |
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Expt. [1] |
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14N |
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Xaa |
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5.250 |
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5.10(5) |
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Xbb |
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0.312 |
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0.2(1) |
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Xcc |
- |
5.562 |
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5.3 |
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|Xac| |
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1.329 |
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RMS |
0.2 (5.2 %) |
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RSD |
0.030 (1.3 %) |
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Xxx |
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5.412 |
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Xyy |
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0.312 |
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Xzz |
- |
5.723 |
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ETA |
- |
0.891 |
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Øz,a |
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83.10 |
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Øa,NCl |
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2.67 |
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Øz,NCl |
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80.43 |
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Table 2. 14N
nqcc's in NH237Cl
(MHz). Calculation was made on the substitution structure of
Cazzoli et al. The Cl atom lies very near the c-axis, There
is, upon Cl substitution, little rotation of principal a,b,c axes
and no significant difference in the nqcc's. |
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Calc. |
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Expt. [1] |
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14N |
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Xaa |
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5.250 |
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5.10(5) |
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Xbb |
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0.312 |
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0.2(1) |
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Xcc |
- |
5.562 |
- |
5.3 |
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|Xac| |
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1.330 |
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RMS |
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0.2 (5.2 %) |
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RSD |
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0.030 (1.3 %) |
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Table 3. 14N
nqcc's in ND235Cl (MHz). Calculation was made on the substitution structure of Cazzoli et al. |
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Calc.
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Expt. [2] |
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Expt. [1] |
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Xaa |
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5.329 |
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5.42(25) |
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5.10(7) |
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Xbb |
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0.312 |
- |
0.37(28) |
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0.2(1) |
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Xcc |
- |
5.641 |
- |
5.05(28) |
- |
5.3 |
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|Xac| |
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0.954 |
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RMS |
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0.52 (14 %) |
0.24 (7.0 %) |
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RSD |
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0.030 (1.3 %) |
0.030 (1.3 %) |
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Table 4. 14N
nqcc's in ND237Cl
(MHz). Calculation was made on the substitution structure of
Cazzoli et al. The Cl atom lies very near the c-axis, There
is, upon Cl
substitution, little rotation of principal a,b,c axes and no
significant difference in the nqcc's. |
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Calc. |
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Expt. [2] |
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14N |
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Xaa |
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5.329 |
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5.41(31) |
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Xbb |
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0.312 |
- |
0.66(30) |
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Xcc |
- |
5.640 |
- |
4.74(30) |
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|Xac| |
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0.957 |
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RMS |
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0.77 (21 %) |
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RSD |
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0.030 (1.3 %) |
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Table 5. 14N
nqcc's in NHD35Cl (MHz). Calculation was made on the substitution structure of Cazzoli et al. |
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Calc.
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Expt. [2] * |
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Expt. [1] |
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Xaa |
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5.290 |
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5.08(18) |
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5.2(2) |
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Xbb |
- |
0.090 |
- |
0.30(28) |
- |
0.1(1) |
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Xcc |
- |
5.201 |
- |
4.78(28) |
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5.1 |
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|Xab| |
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0.126 ** |
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|Xac| |
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1.130 |
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|Xbc| |
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1.499 |
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RMS |
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0.30 (8.6 %) |
0.08 (2.3 %) |
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RSD |
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0.030 (1.3 %) |
0.030 (1.3 %) |
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* Average over 0+ <-- 0- and 0- <-- 0+ states. |
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** The algebraic sign of the product XabXacXbc is negative. |
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Table 6. 14N
nqcc's in NHD37Cl
(MHz). Calculation was made on the substitution structure of
Cazzoli et al. The Cl atom lies very near the c-axis, There
is, upon Cl
substitution, little rotation of principal a,b,c axes and no
significant difference in the nqcc's. |
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Calc. |
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Expt. [2] * |
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14N |
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Xaa |
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5.290 |
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4.87(18) |
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Xbb |
- |
0.090 |
- |
0.25(19) |
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Xcc |
- |
5.201 |
- |
4.62(19) |
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|Xab| |
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0.127 ** |
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|Xac| |
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1.132 |
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|Xbc| |
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1.499 |
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RMS |
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0.56 (17 %) |
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RSD |
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0.030 (1.3 %) |
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* Average over 0+ <-- 0- and 0- <-- 0+ states. |
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** The algebraic sign of the product XabXacXbc is negative. |
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Table 7. 35Cl
nqcc's in NH2Cl (MHz). Calculation was made on the substitution structures of Cazzoli et al. |
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Calc. |
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Expt. [1] |
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35Cl |
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Xaa |
- |
99.69 |
- |
99.61(4) |
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Xbb |
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48.02 |
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47.7(1) |
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Xcc |
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51.67 |
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51.9 |
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|Xac| |
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4.15 |
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RMS |
0.23 (0.34 %) |
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RSD |
0.49 (1.1 %) |
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Xxx |
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51.79 |
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Xyy |
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48.02 |
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Xzz |
- |
99.80 |
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ETA |
- |
0.038 |
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Øz,a |
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1.57 |
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Øa,NCl |
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2.67 |
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Øz,NCl |
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1.10 |
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Table 8. 37Cl
nqcc's in NH2Cl (MHz). Calculation was made on the substitution structures of Cazzoli et al. |
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Calc. |
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Expt. [1] |
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37Cl |
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Xaa |
- |
78.57 |
- |
78.50(3) |
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Xbb |
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37.84 |
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37.6(1) |
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Xcc |
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40.72 |
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40.9 |
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|Xac| |
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3.26 |
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RMS |
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0.18 (0.34 %) |
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RSD |
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0.44 (1.1 %) |
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Table 9. 35Cl
nqcc's in ND2Cl (MHz). Calculation was made on the substitution structure of Cazzoli et al. |
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Calc.
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Expt. [2] |
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Expt. [1] |
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Xaa |
- |
99.22 |
- |
99.49(15) |
- |
99.07(8) |
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Xbb |
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48.02 |
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48.36(20) |
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48.0(3) |
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Xcc |
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51.21 |
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51.12(20) |
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51.07 |
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|Xac| |
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9.34 |
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RMS |
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0.26 (0.39 %) |
0.12 (0.18 %) |
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RSD |
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0.49 (1.1 %) |
0.49 (1.1 %) |
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Table 10. 37Cl
nqcc's in ND2Cl (MHz). Calculation was made on the substitution structures of Cazzoli et al. |
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Calc. |
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Expt. [2] |
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37Cl |
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Xaa |
- |
78.20 |
- |
78.56(15) |
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Xbb |
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37.84 |
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37.47(20) |
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Xcc |
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40.36 |
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41.09(20) |
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|Xac| |
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7.34 |
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RMS |
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0.51 (0.98 %) |
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RSD |
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0.44 (1.1 %) |
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Table 11. 35Cl
nqcc's in NHDCl (MHz). Calculation was made on the substitution structure of Cazzoli et al. |
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Calc.
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Expt. [2] * |
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Expt. [1] |
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Xaa |
- |
99.31 |
- |
99.25(11) |
- |
99.1(2) |
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Xbb |
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47.97 |
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47.65(20) |
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47.8(1) |
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Xcc |
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51.34 |
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51.60(20) |
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51.3 |
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|Xab| |
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6.58 ** |
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|Xac| |
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5.48 |
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|Xbc| |
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0.69 |
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RMS |
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0.24 (0.36 %) |
0.16 (0.24 %) |
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RSD |
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0.49 (1.1 %) |
0.49 (1.1 %) |
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* Average over 0+ <-- 0- and 0- <-- 0+ states. |
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** The algebraic sign of the product XabXacXbc is positive. |
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Table 12. 37Cl
nqcc's in NHDCl (MHz). Calculation was made on the substitution structures of Cazzoli et al. |
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Calc. |
|
Expt. [2] * |
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37Cl |
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Xaa |
- |
78.27 |
- |
77.88(9) |
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Xbb |
|
37.81 |
|
36.78(15) |
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Xcc |
|
40.47 |
|
41.11(15) |
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|Xab| |
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5.16 ** |
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|Xac| |
|
4.30 |
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|Xbc| |
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0.54 |
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RMS |
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0.74 (1.4 %) |
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RSD |
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0.44 (1.1 %) |
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* Average over 0+ <-- 0- and 0- <-- 0+ states. |
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** The algebraic sign of the product XabXacXbc is positive. |
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Table 13. Structure parameters, rs [1] (Å and degrees). Pyramidal. |
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NCl |
1.7480(1) |
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NH |
1.017(5) |
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HNH |
107.(2) |
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ClNH |
103.68(37) |
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[1] G.Cazzoli, D.G.Lister, and P.G.Favero, J.Mol.Spectrosc.
42,286(1972).
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[2] E.Masuko, Y.Hamada, A.Mizoguchi, H.Fukushi, N.Kuze, and T.Sakaizuma, J.Mol.Spectrosc. 253,77(2009). |
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NH3 |
NH2F |
NH2OH |
NCl3 |
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ClNCO |
CF2NCl |
ClNO |
CH3NHCl |
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Table of Contents |
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Molecules/Chlorine |
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Molecules/Nitrogen |
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NH2Cl.html |
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Last
Modified 2 Nov 2008 |
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