Jump to main content
Jump to site search

Volume 225, 2021
Previous Article Next Article

MOF matrix isolation: cooperative conformational mobility enables reliable single crystal transformations

Author affiliations

Abstract

Obtaining structural information for highly reactive metal-based species can provide valuable insight into important chemical transformations or catalytic processes. Trapping these metal-based species within the cavities of porous crystalline hosts, such as metal–organic frameworks (MOFs), can stabilise them, allowing detailed structural elucidation by single crystal X-ray diffraction. Previously, we have used a bespoke flexible MOF, [Mn3L2L′] (MnMOF-1, where L = bis-(4-carboxyphenyl-3,5-dimethylpyrazolyl)methane and L = L′, but L′ has a vacant N,N′-chelation site), which has a chelating site capable of post-synthetically binding metal ions, to study organometallic transformations and fundamental isomerisation processes. This manuscript will report the underlying conformational flexibility of the framework, demonstrate the solvent dependency of post-synthetic metalation, and show that the structural flexibility of the linker site and framework are critical to controlling and achieving high levels of metal loading (and therefore site occupancy) during chemical transformations. From these results, a set of design principles for linker-based “matrix isolation” and structure determination in MOFs are derived.

Graphical abstract: MOF matrix isolation: cooperative conformational mobility enables reliable single crystal transformations

Back to tab navigation

Associated articles

Supplementary files

Article information


Submitted
19 Jan 2020
Accepted
04 Feb 2020
First published
04 Feb 2020

Faraday Discuss., 2021,225, 84-99
Article type
Paper

MOF matrix isolation: cooperative conformational mobility enables reliable single crystal transformations

R. A. Peralta, M. T. Huxley, R. J. Young, O. M. Linder-Patton, J. D. Evans, C. J. Doonan and C. J. Sumby, Faraday Discuss., 2021, 225, 84
DOI: 10.1039/D0FD00012D

Social activity

Search articles by author

Spotlight

Advertisements