Bringing the 4th Dimension to Chemical Crystallography - Time Resolved Photocrystallography

Lead Research Organisation: University of Nottingham
Department Name: Sch of Chemistry

Abstract

The importance of knowing the structure of a material to atomic resolution, the number and nature of the connectivities between the atoms, is fundamental in understanding the properties of the material. X-ray crystallography is the best method of obtaining the detailed structure of solid materials, and provides a 3D picture of the structure. However, until now, it is a technique that only looks as molecules in their ground (unreactive) state. In this proposal, for the first time, we wish to introduce the dimension of time into the crystallographic experiment. By combining the X-ray experiment with a synchronised light source, that activates the molecules into an excited (reactive) state, we will look at the structures of species with lifetimes of microseconds or even nanoseconds. To achieve this we need to build protective molecular cages around these photoreactive molecules, and to compare their solid state behaviour with what occurs in solution using time resolved IR techniques.

Publications

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Bloch WM (2015) X-ray Crystallography in Open-Framework Materials. in Angewandte Chemie (International ed. in English)

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Gould JA (2017) Gas adsorption and structural diversity in a family of Cu(II) pyridyl-isophthalate metal-organic framework materials. in Philosophical transactions. Series A, Mathematical, physical, and engineering sciences

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Llewellyn BA (2014) Photophysics and electrochemistry of a platinum-acetylide disubstituted perylenediimide. in Dalton transactions (Cambridge, England : 2003)

 
Description The research funded through this grant developed new methodologies for the understanding of photoactivated processes in new materials. Ultimately this has relevance for the development of materials that exploit sunlight for energy applications.
Exploitation Route For the development of new energy materials.
Sectors Chemicals,Energy

 
Description The findings within this project have led to the development of a new class of metal-organic framework materials which have developed a new class of materials for subsequent academic study. One of the lead papers published from this study, Nature Chem., 2010, 2, 688 - 694, has been cited over 50 times and is developing a new field within the general area of MOFs.
First Year Of Impact 2010