Chemistry Reference
In-Depth Information
(C xyz
3
(C 2 )
I ( D 2 basis, Fig. D.2 )
D
(C 5 )
D
)
D
φφ 1
φφ 1
1
001
100
010
100
0
1
2
| T 1 x , | T 1 y , | T 1 z
1
10
001
φ 1
1
φ
φ 1
1
φ
001
100
010
100
0
1
2
φ 1
| T 2 x , | T 2 y , | T 2 z
φ
1
10
001
φ 1
φ
1
5 5 5
1
1000
0001
0100
0001
10 00
0
5
3
1
1
100
00
1
4
51
|
G a
,
|
G x
,
|
G y
,
10
00 01
13
|
G z
5
1
31
I
|
,
|
H
,
|
,
|
,
|
D (C xyz
3
D (C 2 )
D (C 5 )
)
3
4
3
2
1
4
1
8
1
1
8
2
1
2
000
10 0
0 0
3
4
3
8
3
8
3
2
1
4
0
01 0
0 0
1
2 000
00001
00100
00010
3
00
100
00 0
1
1
2
1
2
0
8
8
10
1
2
1
2
1
2
0
0
3
8
00 0
0 1
1
8
1
2
1
2
0
| H
components do not denote components that transform like the functions d z 2 and
d x 2
It is important to note that in the Boyle and Parker basis the
|
and
y 2 , but refer to linear combinations of these:
3
8 d z 2
5
8 d x 2
|
=
+
y 2
5
8 d z 2
3
8 d x 2
| H =−
+
y 2
states to point-group
canonical bases for the case of the octahedral group. Similar tables for subduc-
tion to the icosahedral canonical basis have been published by Qiu and Ceulemans
[ 8 ]. Extensive tables of bases in terms of spherical harmonics for several branching
schemes are also provided by Butler [ 9 ].
Griffith has presented the subduction of spherical
|
JM
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