The Janet Periodic Table (aka
Left Step Table) may be re-arranged as a series of square matrices. Each
element is represented as a cell and is identified by the atomic number (Z),
shown as the upper number of each cell. The quantum numbers (n, l,
mL, mS) determine the location of an element within the
table. The quantum pair (n, l ) are the lower numbers in
each cell. Four matrices are required, each matrix is identified by a “matrix
number” (a) as shown below;
Matrix; a = 1
2
1s
|
1
1s
|
4
2s
|
3
2s
|
Matrix; a = 2
9
2p
|
8
2p
|
5
2p
|
6
2p
|
10
2p
|
12
3s
|
11
3s
|
7
2p
|
18
3p
|
20
4s
|
19
4s
|
15
3p
|
17
3p
|
16
3p
|
13
3p
|
14
3p
|
Matrix; a = 3
28
3d
|
27
3d
|
26
3d
|
21
3d
|
22
3d
|
23
3d
|
29
3d
|
35
4p
|
34
4p
|
31
4p
|
32
4p
|
24
3d
|
30
3d
|
36
4p
|
38
5s
|
37
5s
|
33
4p
|
25
3d
|
48
4d
|
54
5p
|
56
6s
|
55
6s
|
51
5p
|
43
4d
|
47
4d
|
53
5p
|
52
5p
|
49
5p
|
50
5p
|
42
4d
|
46
4d
|
45
4d
|
44
4d
|
39
4d
|
40
4d
|
41
4d
|
Matrix; a = 4
67
4f
|
66
4f
|
65
4f
|
64
4f
|
57
4f
|
58
4f
|
59
4f
|
60
4f
|
68
4f
|
78
5d
|
77
5d
|
76
5d
|
71
5d
|
72
5d
|
73
5d
|
61
4f
|
69
4f
|
79
5d
|
85
6p
|
84
6p
|
81
6p
|
82
6p
|
74
5d
|
62
4f
|
70
4f
|
80
5d
|
86
6p
|
88
7s
|
87
7s
|
83
6p
|
75
5d
|
63
4f
|
102
5f
|
112
6d
|
118
7p
|
120
8s
|
119
8s
|
115
7p
|
107
6d
|
95
5f
|
101
5f
|
111
6d
|
117
7p
|
116
7p
|
113
7p
|
114
7p
|
106
6d
|
94
5f
|
100
5f
|
110
6d
|
109
6d
|
108
6d
|
103
6d
|
104
6d
|
105
6d
|
93
5f
|
99
5f
|
98
5f
|
97
5f
|
96
5f
|
89
5f
|
90
5f
|
91
5f
|
92
5f
|
Each matrix is identified by “a” ; a = 1,2,3,4
The upper half of each matrix is identified by; mn
= +½
The lower half of each matrix is identified by; mn
= -½
The right half of each matrix is identified by; mS
= +½
The left half of each matrix is identified by; mS
= -½
A matrix may be viewed as a 2x2 core surrounded by concentric
square rings.
The core of each matrix is identified as; l
= 0
The outermost ring of each matrix is identified as; l
= a - 1
Where; l
= (0,1,2,3) = (s,p,d,f)
Any cell located on a major diagonal of a matrix is
identified as; mL = 0. A
column displacement from the diagonal is defined as mL > 0. A row displacement from the diagonal is
defined as mL < 0
If an element is represented by an atomic number (Z) the
location of the element is a sum of three determinants (D1,D2,D3). Z
= D1 + D2 + D3
For further information please see;
The Matrix Periodic Table;
The Matrix Periodic Table may have each element represented
by chemical symbol as follows;
Matrix; a = 1
He
1s
|
H
1s
|
Be
2s
|
Li
2s
|
Matrix; a = 2
F
2p
|
O
2p
|
B
2p
|
C
2p
|
Ne
2p
|
Mg
3s
|
Na
3s
|
N
2p
|
Ar
3p
|
Ca
4s
|
K
4s
|
P
3p
|
Cl
3p
|
S
3p
|
Al
3p
|
Si
3p
|
Matrix; a = 3
Ni
3d
|
Co
3d
|
Fe
3d
|
Sc
3d
|
Ti
3d
|
V
3d
|
Cu
3d
|
Br
4p
|
Se
4p
|
Ga
4p
|
Ge
4p
|
Cr
3d
|
Zn
3d
|
Kr
4p
|
Sr
5s
|
Rb
5s
|
As
4p
|
Mn
3d
|
Cd
4d
|
Xe
5p
|
Ba
6s
|
Cs
6s
|
Sb
5p
|
Tc
4d
|
Ag
4d
|
I
5p
|
Te
5p
|
In
5p
|
Sn
5p
|
Mo
4d
|
Pd
4d
|
Rh
4d
|
Ru
4d
|
Y
4d
|
Zr
4d
|
Nb
4d
|
Matrix; a = 4
Ho
4f
|
Dy
4f
|
Tb
4f
|
Gd
4f
|
La
4f
|
Ce
4f
|
Pr
4f
|
Nd
4f
|
Dr
4f
|
Pt
5d
|
Ir
5d
|
Os
5d
|
Lu
5d
|
Hf
5d
|
Ta
5d
|
Pm
4f
|
Tm
4f
|
Au
5d
|
At
6p
|
Po
6p
|
Tl
6p
|
Pb
6p
|
W
5d
|
Sm
4f
|
Yb
4f
|
Hg
5d
|
Rn
6p
|
Ra
7s
|
Fr
7s
|
Bi
6p
|
Re
5d
|
Eu
4f
|
No
5f
|
112
6d
|
118
7p
|
120
8s
|
119
8s
|
115
7p
|
Bh
6d
|
Am
5f
|
Md
5f
|
111
6d
|
117
7p
|
116
7p
|
113
7p
|
114
7p
|
Sg
6d
|
Pu
5f
|
Fm
5f
|
Ds
6d
|
Mt
6d
|
Hs
6d
|
Lr
6d
|
Rf
6d
|
Db
6d
|
Np
5f
|
Es
5f
|
Cf
5f
|
Bk
5f
|
Cm
5f
|
Ac
5f
|
Th
5f
|
Pa
5f
|
U
5f
|