Network Diversity through Decoration of Trigonal‐Prismatic Nodes: Two‐Step Crystal Engineering of Cationic Metal–Organic Materials | Zendy

Schoedel Alexander | Zendy; Wojtas Lukasz | Zendy; Kelley Stephen P. | Zendy; Rogers Robin D. | Zendy; Eddaoudi Mohamed | Zendy; Zaworotko Michael J. | Zendy

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Network Diversity through Decoration of Trigonal‐Prismatic Nodes: Two‐Step Crystal Engineering of Cationic Metal–Organic Materials

Author(s) -

Schoedel Alexander,

Wojtas Lukasz,

Kelley Stephen P.,

Rogers Robin D.,

Eddaoudi Mohamed,

Zaworotko Michael J.

Publication year - 2011

Publication title -

angewandte chemie international edition

Language(s) - English

Resource type - Journals

SCImago Journal Rank - 5.831

H-Index - 550

eISSN - 1521-3773

pISSN - 1433-7851

DOI - 10.1002/anie.201104688

Subject(s) - cationic polymerization , trigonal crystal system , block (permutation group theory) , planar , word (group theory) , metal , network topology , crystallography , materials science , computer science , polymer science , topology (electrical circuits) , nanotechnology , crystal structure , chemistry , combinatorics , polymer chemistry , mathematics , computer graphics (images) , geometry , computer network , metallurgy

MOMs the word! In a two‐step process, first a t rigonal‐ p rismatic P rimary M olecular B uilding B lock ([Cr 3 O(isonic) 6 ] + , tp‐PMBB‐1) was formed and then it was connected to linear linkers or square‐planar nodes to afford three novel highly charged cationic metal–organic materials (MOMs) with snx, snw , and stp topologies.

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