Net topology

ubt-a

Ingested production record from rcsr+mofplus. Per-field provenance in field_sources.

JSON · mfpx

240 vertices and 504 edges in the unit cell. 96 of them leave the cell and continue into a neighbouring one; those are drawn in the accent colour and end at a hollow node. Squares are vertices of coordination 5 or more, circles of 4 or fewer. Drag to rotate, or focus the figure and use the arrow keys.

Crystallographic description

Spacegroup
Fm-3m (No. 225)
Cell lengths
a = 9.6570 Å, b = 9.6570 Å, c = 9.6570 Å
Cell angles
α = 90.00°, β = 90.00°, γ = 90.00°
Atoms in cell
240
Transitivity pqrs
2, 5, *, *
Catenated
no
No, computed from the graph of the net itself rather than read off its name: mofpp.periodicity v1 finds a single copy, so it is not interpenetrated on the MOF+ deposit, the graph of the uploaded topology file. Interpenetration is counted here as the number of separate copies of the net that share one repeat unit, so this is a measurement of the topology and not a marker in a string.

Canonical key

Systre key
3 1 2 0 0 0 1 3 0 0 0 1 4 0 0 0 1 5 0 0 0 1 6 0 0 0 2 3 0 0 0 2 4 0 0 0 2 7 0 0 0 3 5 0 0 0 3 8 0 0 0 4 5 0 0 0 4 9 0 0 0 5 10 0 0 0 6 11 0 0 0 6 12 0 0 0 6 13 0 0 0 6 14 0 0 0 7 15 0 0 0 7 16 0 0 0 7 17 0 0 0 8 18 0 0 0 8 19 0 0 0 8 20 0 0 0 9 21 0 0 0 9 22 0 0 0 9 23 0 0 0 10 24 0 0 0 10 25 0 0 0 10 26 0 0 0 11 12 0 0 0 11 13 0 0 0 11 27 0 0 0 12 14 0 0 0 12 28 0 0 0 13 14 0 0 0 13 29 0 0 0 14 30 0 0 0 15 16 0 0 0 15 31 0 0 0 15 32 0 0 0 16 17 0 0 0 16 32 0 0 0 16 33 0 0 0 17 21 0 0 0 17 32 0 0 0 18 19 0 0 0 18 34 0 0 0 18 35 0 0 0 19 20 0 0 0 19 35 0 0 0 19 36 0 0 0 20 24 0 0 0 20 35 0 0 0 21 23 0 0 0 21 37 0 0 0 22 23 0 0 0 22 37 0 0 0 22 38 0 0 0 23 37 0 0 0 23 39 0 0 0 24 26 0 0 0 24 40 0 0 0 25 26 0 0 0 25 40 0 0 0 25 41 0 0 0 26 40 0 0 0 26 42 0 0 0 27 42 1 0 0 27 43 0 0 0 27 44 0 0 0 28 39 0 1 0 28 45 0 0 0 28 46 0 0 0 29 36 0 0 1 29 47 0 0 0 29 48 0 0 0 30 33 -1 1 1 30 49 0 0 0 30 50 0 0 0 31 34 0 0 0 31 51 0 0 0 31 52 0 0 0 32 53 0 0 0 33 49 1 -1 -1 33 50 1 -1 -1 33 54 0 0 0 34 51 0 0 0 34 55 0 0 0 35 56 0 0 0 36 47 0 0 -1 36 48 0 0 -1 36 57 0 0 0 37 57 0 -1 0 38 41 0 0 0 38 58 0 0 0 38 59 0 0 0 39 45 0 -1 0 39 46 0 -1 0 39 56 0 0 1 40 54 -1 0 0 41 59 0 0 0 41 60 0 0 0 42 43 -1 0 0 42 44 -1 0 0 42 53 -1 1 1 43 52 0 1 1 43 53 0 1 1 44 47 0 0 0 44 53 0 1 1 45 55 0 1 1 45 56 0 1 1 46 49 0 0 0 46 56 0 1 1 47 57 0 0 1 48 57 0 0 1 48 58 0 1 1 49 54 -1 1 1 50 54 -1 1 1 50 60 0 1 1 51 52 0 0 0 51 55 0 0 0 51 59 1 0 -1 52 55 0 0 0 58 59 0 0 0 58 60 0 0 0 59 60 0 0 0
(rcsr)The canonical Systre key, copied verbatim from the local RCSR Systre archive of 2019-06-01 — and corroborated here rather than carried on the word of the archive alone. Systre 19.6.0 was run on the MOF+ deposit, the graph of the uploaded topology file and computed the same key, character for character, so two independent statements of the canonical form of this net agree. The computed key is served under topology.symmetry with the graph it was computed from and the version that computed it. The checksum beside this key is still the one the archive carries, copied from the same block and neither computed nor verified here.
Checksum
05a747d88f5ec4b4c0da539ce3e0012a (rcsr)

Vertices

The mapping of coordination sequences onto vertex classes that the source supplied was checked against a walk over the periodic topology of the net itself, one walk per vertex class, and agreed. The sequences are the values the source supplied; the walk settled nothing but which class each one describes.

Corroborated: 240 of 240 stored symbols were recomputed from the topology of the net itself and agree, entry for entry. A vertex symbol of this collection names the shortest cycle at each angle of a vertex, and mofpp.rings v2 (mofplus-deposit) walks those cycles on the deposit graph. The strings shown are still the values the source supplied; what was checked is that they are the values this net has.

Site symmetry. 240 of 240 vertex rows carry one, attributed to computed:mofpp.site_symmetry-v1 (spglib-2.7.0, mofplus-deposit). The site symmetry on each vertex row is the point group of the operations of the net's ideal space group that leave that vertex where it is — its Wyckoff position in the net's maximum-symmetry embedding. It is a property of the net, not of any material built on it, and it is what says whether a four-coordinated vertex is tetrahedral (-43m) or square-planar (4/mmm) — a distinction the coordination number cannot make. Computed in Fm-3m, setting the conventional one, by mofpp.site_symmetry v1 with spglib 2.7.0, from the embedding Systre 19.6.0 computed on the mofplus-deposit. spglib determined the same space group from those coordinates independently, which is a check of two different computations against each other rather than a restatement.

One row per distinct vertex. The coordination sequence counts how many vertices lie at each topological distance; the vertex symbol names the shortest ring at each angle of the vertex; the site symmetry is the vertex's Wyckoff position in the net's maximum-symmetry embedding. The three columns do not carry the same warrant: which of them was corroborated, which was not, and which was computed here, is stated above the table.
# Coordination Site symmetry Vertex symbol Coordination sequence
0 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
1 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
2 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
3 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
4 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
5 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
6 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
7 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
8 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
9 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
10 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
11 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
12 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
13 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
14 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
15 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
16 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
17 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
18 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
19 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
20 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
21 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
22 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
23 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
24 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
25 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
26 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
27 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
28 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
29 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
30 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
31 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
32 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
33 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
34 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
35 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
36 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
37 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
38 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
39 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
40 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
41 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
42 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
43 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
44 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
45 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
46 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
47 5 mm23.3.3.3.4(2).4(2).12.12.12.125 8 16 24 38 52 74 96 125 158
48 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
49 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
50 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
51 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
52 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
53 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
54 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
55 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
56 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
57 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
58 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
59 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
60 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
61 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
62 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
63 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
64 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
65 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
66 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
67 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
68 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
69 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
70 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
71 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
72 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
73 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
74 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
75 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
76 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
77 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
78 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
79 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
80 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
81 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
82 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
83 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
84 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
85 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
86 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
87 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
88 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
89 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
90 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
91 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
92 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
93 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
94 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
95 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
96 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
97 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
98 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
99 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
100 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
101 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
102 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
103 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
104 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
105 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
106 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
107 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
108 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
109 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
110 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
111 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
112 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
113 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
114 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
115 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
116 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
117 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
118 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
119 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
120 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
121 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
122 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
123 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
124 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
125 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
126 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
127 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
128 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
129 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
130 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
131 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
132 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
133 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
134 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
135 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
136 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
137 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
138 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
139 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
140 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
141 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
142 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
143 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
144 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
145 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
146 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
147 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
148 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
149 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
150 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
151 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
152 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
153 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
154 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
155 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
156 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
157 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
158 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
159 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
160 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
161 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
162 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
163 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
164 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
165 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
166 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
167 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
168 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
169 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
170 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
171 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
172 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
173 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
174 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
175 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
176 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
177 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
178 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
179 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
180 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
181 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
182 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
183 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
184 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
185 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
186 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
187 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
188 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
189 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
190 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
191 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
192 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
193 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
194 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
195 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
196 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
197 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
198 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
199 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
200 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
201 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
202 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
203 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
204 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
205 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
206 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
207 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
208 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
209 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
210 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
211 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
212 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
213 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
214 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
215 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
216 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
217 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
218 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
219 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
220 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
221 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
222 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
223 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
224 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
225 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
226 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
227 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
228 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
229 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
230 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
231 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
232 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
233 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
234 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
235 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
236 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
237 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
238 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146
239 4 13.3.4(2).6.7.8(3)4 7 14 20 36 50 71 90 118 146

Computed topology

Computed here from the quotient graph of the net itself, not transcribed from either source: periodicity, symmetry, invariants and rings, on the MOF+ deposit, the graph of the uploaded topology file and the RCSR archive key, the canonical key the archive states, by mofpp.invariants 2, mofpp.periodicity 1, mofpp.rings 2, mofpp.site_symmetry spglib-2.7.0 systre-19.6.0 v1 and systre 19.6.0 sha256:0d272e98a1a21669bc67a809b95c014ba2a2fb39a6fd2147039201216ab0d48d options:--systreKey wrapper:2. Each basis is analysed on its own and the results are never merged, because a MOF+ deposit and an RCSR archive key are two different graphs that usually describe the same net and sometimes do not. The transitivity r and s are computed by nothing in this project: they count the faces and the tiles of a natural tiling, and none is derived here. That is a measured limit rather than a job not yet done. The Gavrog library this project runs Systre from was tried on 2026-09-12: for a 3-periodic net it has no route from a net to a tiling at all, and for a 2-periodic net it has one that works, whose result is a plane tiling with faces and no tiles and so a transitivity triple rather than an r and an s. This block therefore states p and q and leaves r and s unknown rather than filling them. Every entry carries the tool, its version and input_checksum, the checksum of the graph that was actually analysed, so that a result computed from the graph this record holds now can be told from one computed before it changed. Nothing here rebuilds a graph to check that, so no entry below is claimed to be current.

Periodicity — the MOF+ deposit, the graph of the uploaded topology file

Periodicity (mofplus-deposit)
3-periodic
One connected net (mofplus-deposit)
yes
Interpenetration (mofplus-deposit)
1 copy
Computed by (mofplus-deposit)
mofpp.periodicity 1 — ok

Periodicity — the RCSR archive key, the canonical key the archive states

Periodicity (rcsr-archive-key)
3-periodic
One connected net (rcsr-archive-key)
yes
Interpenetration (rcsr-archive-key)
1 copy
Computed by (rcsr-archive-key)
mofpp.periodicity 1 — ok

Symmetry — the MOF+ deposit, the graph of the uploaded topology file

Systre found one connected net in the repeat unit, so the group, the kinds of node and edge, and the key below describe that net.

Ideal space group (mofplus-deposit)
Fm-3m (No. 225)
Transitivity p, q (mofplus-deposit)
2, 5 Kinds of node and of edge. r and s count the faces and tiles of a natural tiling, and none is derived here: the library this site runs Systre from cannot produce one for a 3-periodic net at all, and a 2-periodic net tiles the plane, which has faces and no tiles. They stay unknown rather than being filled.
Point-group order (mofplus-deposit)
48
Repeat-unit factor (mofplus-deposit)
4
RCSR identification (mofplus-deposit)
ubt-a
Computed Systre key (mofplus-deposit)
3 1 2 0 0 0 1 3 0 0 0 1 4 0 0 0 1 5 0 0 0 1 6 0 0 0 2 3 0 0 0 2 4 0 0 0 2 7 0 0 0 3 5 0 0 0 3 8 0 0 0 4 5 0 0 0 4 9 0 0 0 5 10 0 0 0 6 11 0 0 0 6 12 0 0 0 6 13 0 0 0 6 14 0 0 0 7 15 0 0 0 7 16 0 0 0 7 17 0 0 0 8 18 0 0 0 8 19 0 0 0 8 20 0 0 0 9 21 0 0 0 9 22 0 0 0 9 23 0 0 0 10 24 0 0 0 10 25 0 0 0 10 26 0 0 0 11 12 0 0 0 11 13 0 0 0 11 27 0 0 0 12 14 0 0 0 12 28 0 0 0 13 14 0 0 0 13 29 0 0 0 14 30 0 0 0 15 16 0 0 0 15 31 0 0 0 15 32 0 0 0 16 17 0 0 0 16 32 0 0 0 16 33 0 0 0 17 21 0 0 0 17 32 0 0 0 18 19 0 0 0 18 34 0 0 0 18 35 0 0 0 19 20 0 0 0 19 35 0 0 0 19 36 0 0 0 20 24 0 0 0 20 35 0 0 0 21 23 0 0 0 21 37 0 0 0 22 23 0 0 0 22 37 0 0 0 22 38 0 0 0 23 37 0 0 0 23 39 0 0 0 24 26 0 0 0 24 40 0 0 0 25 26 0 0 0 25 40 0 0 0 25 41 0 0 0 26 40 0 0 0 26 42 0 0 0 27 42 1 0 0 27 43 0 0 0 27 44 0 0 0 28 39 0 1 0 28 45 0 0 0 28 46 0 0 0 29 36 0 0 1 29 47 0 0 0 29 48 0 0 0 30 33 -1 1 1 30 49 0 0 0 30 50 0 0 0 31 34 0 0 0 31 51 0 0 0 31 52 0 0 0 32 53 0 0 0 33 49 1 -1 -1 33 50 1 -1 -1 33 54 0 0 0 34 51 0 0 0 34 55 0 0 0 35 56 0 0 0 36 47 0 0 -1 36 48 0 0 -1 36 57 0 0 0 37 57 0 -1 0 38 41 0 0 0 38 58 0 0 0 38 59 0 0 0 39 45 0 -1 0 39 46 0 -1 0 39 56 0 0 1 40 54 -1 0 0 41 59 0 0 0 41 60 0 0 0 42 43 -1 0 0 42 44 -1 0 0 42 53 -1 1 1 43 52 0 1 1 43 53 0 1 1 44 47 0 0 0 44 53 0 1 1 45 55 0 1 1 45 56 0 1 1 46 49 0 0 0 46 56 0 1 1 47 57 0 0 1 48 57 0 0 1 48 58 0 1 1 49 54 -1 1 1 50 54 -1 1 1 50 60 0 1 1 51 52 0 0 0 51 55 0 0 0 51 59 1 0 -1 52 55 0 0 0 58 59 0 0 0 58 60 0 0 0 59 60 0 0 0
Key against the archive (mofplus-deposit)
the same key, character for character
TD10 as Systre prints it (mofplus-deposit)
565
Computed by (symmetry, mofplus-deposit)
systre 19.6.0 sha256:0d272e98a1a21669bc67a809b95c014ba2a2fb39a6fd2147039201216ab0d48d options:--systreKey wrapper:2 — ok

Invariants — the MOF+ deposit, the graph of the uploaded topology file

TD10, exact (mofplus-deposit)
565.0
Genus (mofplus-deposit)
67
Shells walked (mofplus-deposit)
10
Computed by (invariants, mofplus-deposit)
mofpp.invariants 2 — ok

Invariants — the RCSR archive key, the canonical key the archive states

TD10, exact (rcsr-archive-key)
565.0
Genus (rcsr-archive-key)
67
Shells walked (rcsr-archive-key)
10
Computed by (invariants, rcsr-archive-key)
mofpp.invariants 2 — ok

Rings — the MOF+ deposit, the graph of the uploaded topology file

Net point symbol (mofplus-deposit)
(3^2.4.6.7.8)4(3^4.4^2.12^4)
Longest ring searched (mofplus-deposit)
40
Computed by (rings, mofplus-deposit)
mofpp.rings 2 — ok
Computed from the graph itself, one row per set of vertices carrying the same symbols. The cycle symbol follows the MOF+ convention — the shortest cycle at each angle — and is the one comparable with the stored column above; the RCSR ring symbol names the shortest ring at each angle, with * where none exists within the bound, and is a different quantity.
Vertices Cycle symbol (MOF+ convention) RCSR ring symbol Point symbol Coordination sequence
0, 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16, 17, 18, 19, 20, 21, 22, 23, 24, 25, 26, 27, 28, 29, 30, 31, 32, 33, 34, 35, 36, 37, 38, 39, 40, 41, 42, 43, 44, 45, 46, 473.3.3.3.4(2).4(2).12.12.12.12 3.3.3.3.12.12.12.12.18(10).18(10) 3^4.4^2.12^4 5 8 16 24 38 52 74 96 125 158
48, 49, 50, 51, 52, 53, 54, 55, 56, 57, 58, 59, 60, 61, 62, 63, 64, 65, 66, 67, 68, 69, 70, 71, 72, 73, 74, 75, 76, 77, 78, 79, 80, 81, 82, 83, 84, 85, 86, 87, 88, 89, 90, 91, 92, 93, 94, 95, 96, 97, 98, 99, 100, 101, 102, 103, 104, 105, 106, 107, 108, 109, 110, 111, 112, 113, 114, 115, 116, 117, 118, 119, 120, 121, 122, 123, 124, 125, 126, 127, 128, 129, 130, 131, 132, 133, 134, 135, 136, 137, 138, 139, 140, 141, 142, 143, 144, 145, 146, 147, 148, 149, 150, 151, 152, 153, 154, 155, 156, 157, 158, 159, 160, 161, 162, 163, 164, 165, 166, 167, 168, 169, 170, 171, 172, 173, 174, 175, 176, 177, 178, 179, 180, 181, 182, 183, 184, 185, 186, 187, 188, 189, 190, 191, 192, 193, 194, 195, 196, 197, 198, 199, 200, 201, 202, 203, 204, 205, 206, 207, 208, 209, 210, 211, 212, 213, 214, 215, 216, 217, 218, 219, 220, 221, 222, 223, 224, 225, 226, 227, 228, 229, 230, 231, 232, 233, 234, 235, 236, 237, 238, 2393.3.4(2).6.7.8(3) 3.3.4.6.8.12 3^2.4.6.7.8 4 7 14 20 36 50 71 90 118 146

Rings — the RCSR archive key, the canonical key the archive states

Net point symbol (rcsr-archive-key)
(3^2.4.6.7.8)4(3^4.4^2.12^4)
Longest ring searched (rcsr-archive-key)
40
Computed by (rings, rcsr-archive-key)
mofpp.rings 2 — ok
Computed from the graph itself, one row per set of vertices carrying the same symbols. The cycle symbol follows the MOF+ convention — the shortest cycle at each angle — and is the one comparable with the stored column above; the RCSR ring symbol names the shortest ring at each angle, with * where none exists within the bound, and is a different quantity.
Vertices Cycle symbol (MOF+ convention) RCSR ring symbol Point symbol Coordination sequence
0, 5, 15, 18, 22, 25, 32, 35, 38, 41, 50, 583.3.3.3.4(2).4(2).12.12.12.12 3.3.3.3.12.12.12.12.18(10).18(10) 3^4.4^2.12^4 5 8 16 24 38 52 74 96 125 158
1, 2, 3, 4, 6, 7, 8, 9, 10, 11, 12, 13, 14, 16, 17, 19, 20, 21, 23, 24, 26, 27, 28, 29, 30, 31, 33, 34, 36, 37, 39, 40, 42, 43, 44, 45, 46, 47, 48, 49, 51, 52, 53, 54, 55, 56, 57, 593.3.4(2).6.7.8(3) 3.3.4.6.8.12 3^2.4.6.7.8 4 7 14 20 36 50 71 90 118 146

Cross-checks

Name against the computed key
corroborated-by-systre-key
Stored symbols against the computed ones
corroborated: 240 of 240 vertex rows agree with mofpp.rings v2 (mofplus-deposit).
Stored sequences against the computed ones
corroborated: 240 of 240 vertex rows agree with mofpp.invariants v2 (mofplus-deposit), compared on the stored length.
Catenation against the name heuristic
No; agrees with the computed value

Provenance

Source
rcsr+mofplus — reconciled from both, field by field
Identifier at the source
ubt-a
Retrieved
2026-09-09
Licence
CC BY 4.0 — verified from MOF++ project decision, CONTEXT §6 (Licensing): MOF+ is this group's own service, so nets retrieved from it are the project's own data to license, and the project licenses its data CC BY 4.0. No third-party grant is claimed..
Published
yes

Position in the collection

RCSR index
2161 (derived) Derived by this site, not published by RCSR: the 1-based position of the symbol in the ascending ASCII-lexicographic ordering of the 2930 symbols in the RCSR Systre archive of 2019-06-01. RCSR does not number its nets; this is our ordering of their symbols and nothing more.
Complexity rank
2365 The order the ingest processed this net in, simplest first. A different number from the RCSR index above, meaning a different thing.