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S1C2
S1C3
Energy calculated at B2PLYP=FULLultrafine/STO-3G
| | hartrees |
| Energy at 0K | -1574.468781 |
| Energy at 298.15K | |
| HF Energy | -1574.430721 |
| Nuclear repulsion energy | 342.828865 |
The energy at 298.15K was derived from the energy at 0K
and an integrated heat capacity that used the calculated vibrational frequencies.
Vibrational Frequencies calculated at B2PLYP=FULLultrafine/STO-3G
| Mode Number |
Symmetry |
Frequency (cm-1) |
Scaled Frequency (cm-1) |
IR Intensities (km mol-1) |
Raman Act (Å4/u) |
Dep P |
Dep U |
| 1 |
A1 |
625 |
625 |
0.00 |
25.15 |
0.09 |
0.17 |
| 2 |
A1 |
154 |
154 |
0.00 |
1.70 |
0.73 |
0.84 |
| 3 |
B1 |
582 |
582 |
0.00 |
15.16 |
0.75 |
0.86 |
| 4 |
B2 |
344 |
344 |
0.91 |
6.07 |
0.75 |
0.86 |
| 5 |
E |
565 |
565 |
1.90 |
3.34 |
0.75 |
0.86 |
| 5 |
E |
565 |
565 |
1.90 |
3.34 |
0.75 |
0.86 |
Unscaled Zero Point Vibrational Energy (zpe) 1417.4 cm
-1
Scaled (by 1) Zero Point Vibrational Energy (zpe) 1417.4 cm
-1
See section
III.C.1 List or set vibrational scaling factors
to change the scale factors used here.
See section
III.C.2
Calculate a vibrational scaling factor for a given set of molecules
to determine the least squares best scaling factor.
Geometric Data calculated at B2PLYP=FULLultrafine/STO-3G
Point Group is D2d
Cartesians (Å)
| Atom |
x (Å) |
y (Å) |
z (Å) |
| S1 |
0.000 |
1.482 |
0.250 |
| S2 |
0.000 |
-1.482 |
0.250 |
| S3 |
-1.482 |
0.000 |
-0.250 |
| S4 |
1.482 |
0.000 |
-0.250 |
Atom - Atom Distances (Å)
| |
S1 |
S2 |
S3 |
S4 |
| S1 | | 2.9647 | 2.1551 | 2.1551 |
S2 | 2.9647 | | 2.1551 | 2.1551 | S3 | 2.1551 | 2.1551 | | 2.9647 | S4 | 2.1551 | 2.1551 | 2.9647 | |
More geometry information
Calculated Bond Angles
| atom1 |
atom2 |
atom3 |
angle |
|
atom1 |
atom2 |
atom3 |
angle |
| S1 |
S2 |
S4 |
46.541 |
|
S1 |
S3 |
S4 |
46.541 |
| S2 |
S1 |
S3 |
46.541 |
|
S2 |
S4 |
S3 |
46.541 |
Electronic energy levels
Charges, Dipole, Quadrupole and Polarizability
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S1C1
S1C3
Energy calculated at B2PLYP=FULLultrafine/STO-3G
| | hartrees |
| Energy at 0K | -1574.454884 |
| Energy at 298.15K | |
| HF Energy | -1574.337747 |
| Nuclear repulsion energy | 322.344810 |
The energy at 298.15K was derived from the energy at 0K
and an integrated heat capacity that used the calculated vibrational frequencies.
Vibrational Frequencies calculated at B2PLYP=FULLultrafine/STO-3G
| Mode Number |
Symmetry |
Frequency (cm-1) |
Scaled Frequency (cm-1) |
IR Intensities (km mol-1) |
Raman Act (Å4/u) |
Dep P |
Dep U |
| 1 |
A1 |
736 |
736 |
0.00 |
22.43 |
0.12 |
0.22 |
| 2 |
A1 |
278 |
278 |
0.00 |
179.91 |
0.37 |
0.54 |
| 3 |
A1 |
232 |
232 |
6.98 |
0.00 |
0.37 |
0.54 |
| 4 |
A2 |
195 |
195 |
0.00 |
0.00 |
0.75 |
0.86 |
| 5 |
B2 |
746 |
746 |
0.93 |
0.00 |
0.75 |
0.86 |
| 6 |
B2 |
307 |
307 |
0.00 |
10.31 |
0.75 |
0.86 |
Unscaled Zero Point Vibrational Energy (zpe) 1246.5 cm
-1
Scaled (by 1) Zero Point Vibrational Energy (zpe) 1246.5 cm
-1
See section
III.C.1 List or set vibrational scaling factors
to change the scale factors used here.
See section
III.C.2
Calculate a vibrational scaling factor for a given set of molecules
to determine the least squares best scaling factor.
Geometric Data calculated at B2PLYP=FULLultrafine/STO-3G
Point Group is C2v
Cartesians (Å)
| Atom |
x (Å) |
y (Å) |
z (Å) |
| S1 |
0.000 |
1.319 |
0.986 |
| S2 |
0.000 |
-1.319 |
0.986 |
| S3 |
0.000 |
1.320 |
-0.986 |
| S4 |
0.000 |
-1.320 |
-0.986 |
Atom - Atom Distances (Å)
| |
S1 |
S2 |
S3 |
S4 |
| S1 | | 2.6383 | 1.9717 | 3.2940 |
S2 | 2.6383 | | 3.2940 | 1.9717 | S3 | 1.9717 | 3.2940 | | 2.6392 | S4 | 3.2940 | 1.9717 | 2.6392 | |
More geometry information
Calculated Bond Angles
| atom1 |
atom2 |
atom3 |
angle |
|
atom1 |
atom2 |
atom3 |
angle |
| S1 |
S2 |
S4 |
90.012 |
|
S1 |
S3 |
S4 |
89.988 |
| S2 |
S1 |
S3 |
90.012 |
|
S2 |
S4 |
S3 |
89.988 |
Electronic energy levels
Charges, Dipole, Quadrupole and Polarizability
Jump to
S1C1
S1C2
Energy calculated at B2PLYP=FULLultrafine/STO-3G
| | hartrees |
| Energy at 0K | -1574.454884 |
| Energy at 298.15K | |
| HF Energy | -1574.337753 |
| Nuclear repulsion energy | 322.357873 |
The energy at 298.15K was derived from the energy at 0K
and an integrated heat capacity that used the calculated vibrational frequencies.
Vibrational Frequencies calculated at B2PLYP=FULLultrafine/STO-3G
| Mode Number |
Symmetry |
Frequency (cm-1) |
Scaled Frequency (cm-1) |
IR Intensities (km mol-1) |
Raman Act (Å4/u) |
Dep P |
Dep U |
| 1 |
Ag |
735 |
735 |
0.00 |
22.33 |
0.12 |
0.22 |
| 2 |
Ag |
278 |
278 |
0.00 |
175.94 |
0.37 |
0.54 |
| 3 |
Au |
196 |
196 |
0.00 |
0.00 |
0.00 |
0.00 |
| 4 |
B1u |
745 |
745 |
0.95 |
0.00 |
0.33 |
0.50 |
| 5 |
B2u |
233 |
233 |
7.00 |
0.00 |
0.56 |
0.71 |
| 6 |
B3g |
307 |
307 |
0.00 |
10.30 |
0.75 |
0.86 |
Unscaled Zero Point Vibrational Energy (zpe) 1246.8 cm
-1
Scaled (by 1) Zero Point Vibrational Energy (zpe) 1246.8 cm
-1
See section
III.C.1 List or set vibrational scaling factors
to change the scale factors used here.
See section
III.C.2
Calculate a vibrational scaling factor for a given set of molecules
to determine the least squares best scaling factor.
Geometric Data calculated at B2PLYP=FULLultrafine/STO-3G
Point Group is D2h
Cartesians (Å)
| Atom |
x (Å) |
y (Å) |
z (Å) |
| S1 |
0.000 |
0.986 |
1.319 |
| S2 |
0.000 |
0.986 |
-1.319 |
| S3 |
0.000 |
-0.986 |
1.319 |
| S4 |
0.000 |
-0.986 |
-1.319 |
Atom - Atom Distances (Å)
| |
S1 |
S2 |
S3 |
S4 |
| S1 | | 2.6381 | 1.9720 | 3.2937 |
S2 | 2.6381 | | 3.2937 | 1.9720 | S3 | 1.9720 | 3.2937 | | 2.6381 | S4 | 3.2937 | 1.9720 | 2.6381 | |
More geometry information
Calculated Bond Angles
| atom1 |
atom2 |
atom3 |
angle |
|
atom1 |
atom2 |
atom3 |
angle |
| S1 |
S2 |
S4 |
90.000 |
|
S1 |
S3 |
S4 |
90.000 |
| S2 |
S1 |
S3 |
90.000 |
|
S2 |
S4 |
S3 |
90.000 |
Electronic energy levels
Charges, Dipole, Quadrupole and Polarizability