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Clusters of Octahedral Symmetry

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Multi-shell Polyhedral Clusters

Part of the book series: Carbon Materials: Chemistry and Physics ((CMCP,volume 10))

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Abstract

Cube and its dual Octahedron exist in any multi-dimensional space; as shapes, they compose multi-shell clusters of octahedral symmetry (resulted by operations on maps) and crystal networks. A particular attention was given to clusters decorated with octahedra and dodecahedra, respectively.

Cube is the only Platonic solid that can tessellate the 3D space. This chapter was focused on two space fillers: the cube C and the rhombic dodecahedron, Rh12 (i.e. d(mC).14, or dual of cuboctahedron) and to their networks, derived by map operations, like dual, medial, truncation or leapfrog. The clusters and networks were characterized by figure count, ring signature and centrality index. An atlas section illustrates the discussed multi-shell polyhedral clusters and triple periodic structures, respectively.

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Authors

Chapter 7 Atlas: Octahedral Clusters

Chapter 7 Atlas: Octahedral Clusters

figure a

C.8

O.6

OP.7

figure e

O.6

C.8

CP.9

figure i

C.8

A4.8

CP.9

figure m

mA4.16

mCP.20

d(mCP).56_4

figure q

mA4.16

mCP.20

m(mCP).60_4

figure u

TC.24

mCP.20

t(mCP).120_4

figure y

C.8

TO.24

CP.9

figure ac

O.6

C.8

CP.9

figure ag

C.8

CO.12

O@CO.18

figure ak

C8

CO.12

O@CO.18

figure ao

O.6

TO.24

O@CO.18=mOP.18

figure as

O@3O.15

dCO@CO.26

COP@dCO.27

figure aw

O@3O.15

CO@dCO.26

m(dCO@CO).96_4

figure ba

CO.12

O@3O.15

CO@dCO.26

figure be

O@3O.15

dCO@COP.27

CO@dCO.26

figure bi

COP@dCO.27

P12@CO@dCO.27

C108X.60

m(CO@dCO27).96

figure bm

t sel (P4(C)).44

s 2(C).56

t sel (P4(C))@(8D).100

figure bq

D.20

t sel (P4(C)).44

t sel (P4(C))@(8D).100

figure bu

t sel (P4(C))@(8D).100_2

t sel (P4(C))@(8D).100_3

t sel (P4(C))@(8D).100_4

figure by

d(C100).84_2

d(C100).84_3

t sel (P4(C))@(8D).100_4

figure cc

m(C100).180_2

m(C100).180_3

t sel (P4(C))@(8D).100

figure cg

dm(C100).244_2

dm(C100).244_3

Rh30.32

figure ck

t(C100).360_2

t(C100).360_3

t(C100).360_4

figure co

l(C100).420_2

l(C100).420_3

l(C100).420_4

figure cs

C16 (8(4.5.5).8(5.5.5))

C.20

t sel (P4(C))@(8D).100_4

figure cw

t(C108)X.184

t(C100).360

C108

figure da

C108

C400

C184

figure de

l(C108).528X.204

l(C100).420_4

l(C108).528_4

figure di

m(Q 4)X.20

m(Q 4)X.20

m(Q 4).32

figure dm

dm(Q 4)X.50a (r)

Rh12@(12mP3;8T).50

C2 × S4; Order 48;

|{6};{8};{12};{24}|

dm(Q 4)X.50a (b)

Rh12@(12mP3;8T).50

C2 × S4; Order 48;

|{6};{8};{12};{24}|

dm(Q 4).88_3

figure dq

d(m(Q 4)88)X.50

C50a

(d(mQ 4)88)X50.222.310

C50a.222.310

d(m(C24)84)166X50.222.310

C50b.222.310

figure du

O@14O.24

C2 × S4

Classes: |2{6};{12}|

d(m(C24)84).166X.50

Rh12@12mP3.50

d(m(C24)84).166

figure dy

Rh12@12mP3.50

C50b

d(m(C24)84)166X50.222.310

C50b.222.310

(d(mQ 4)88)X50.222.310

C50a.222.310

figure ec

Rh24@24mP3.98

C50b co-net

Rh12@12mP3.50_3

Rh12@12mP3.50

C50b net

figure eg

Rh12@12mP3.50

Rh24@24mP3.98_3

Rh24@24mP3.98

figure ek

C.8

O.6

C.222.27

figure eo

C.222.27

O.6

CO.12

figure es

C.222.27

O.6

TC.24

figure ew

l(C.222).144

O.6

TO.24

figure fa

C.8

CO.12

RCO.24= mmC.24

figure fe

RCO.24= mmC.24

CO.12

C.8

figure fi

TCO.48

TO.24

C.8

figure fm

TCO.48

TO.24

C.8

figure fq

DSCO=d(stCO).48

TC.24

CP.9

figure fu

DSCO=d(stCO).48

TC.24

CP.222.35

figure fy

Rh12@12Rh12.94

Rh12.14 = d(CO).14 [4^12]

l((Rh12@12Rh12).480

figure gc

RCO.24= mmC.24

C.8

T.4

figure gg

RCO.24= mmC.24

C.8

T.4

figure gk

Rh12.14 = p 4(T).14 d(mC).14 = d(CO).14

TCO.48

l((DCO).333.324 co-net

figure go

TCO.48 [4^12.6^8.8^6]

TC.24 [3^8.8^6]

TT.12 [3^4.6^4]

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Diudea, M.V. (2018). Clusters of Octahedral Symmetry. In: Multi-shell Polyhedral Clusters. Carbon Materials: Chemistry and Physics, vol 10. Springer, Cham. https://doi.org/10.1007/978-3-319-64123-2_7

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