Issue 2, 2015

Reductive coordination replication of V2O5 sacrificial macrostructures into vanadium-based porous coordination polymers

Abstract

Vanadium-based porous coordination polymers (or metal–organic frameworks) possess both porous and electronic properties, which make these new materials appealing for applications in molecular separation, sensing and heterogeneous catalysis. Their integration into systems that fully exploit their intrinsic properties requires versatile methods allowing assembly of the PCP crystals into well-defined films, patterns, fibers or the formation of heterostructures. In this contribution, polycrystalline macrostructures and heterostructures made of [V(OH)ndc]n (ndc = 1,4-naphthalenedicarboxylate) PCP crystals were synthesized through a dissolution–recrystallization process, so-called coordination replication, where a pre-shaped V2O5 sacrificial phase was replaced by well-intergrown PCP crystals in the presence of H2ndc as an organic linker and under a reductive environment. In this process, V2O5 acts both as the metal source and as the template that provides the shape to the resulting mesoscopic polycrystalline architecture. Ascorbic acid, acting as the reducing agent, both promotes the dissolution of the sacrificial V2O5 phase and provides the VIII species required for the construction of the [V(OH)ndc]n framework. Two-dimensional patterns were successfully synthesized by applying this procedure.

Graphical abstract: Reductive coordination replication of V2O5 sacrificial macrostructures into vanadium-based porous coordination polymers

Supplementary files

Article information

Article type
Paper
Submitted
19 júl. 2014
Accepted
24 sep. 2014
First published
25 sep. 2014

CrystEngComm, 2015,17, 323-330

Author version available

Reductive coordination replication of V2O5 sacrificial macrostructures into vanadium-based porous coordination polymers

J. Reboul, K. Yoshida, S. Furukawa and S. Kitagawa, CrystEngComm, 2015, 17, 323 DOI: 10.1039/C4CE01501K

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