We are an experimental materials chemistry group in the Department of Chemistry at the University of Liverpool. Our group is primarily interested in the development of both open and closed shell heterocyclic compounds and their application as advanced magnetic, conductive or photochromic materials. We use organic and inorganic synthetic techniques to generate these materials. We strive to incorporate multifunctional properties into our materials and our research projects range from the study of single molecules up to complex three-dimensional systems.
We study our target compounds using advanced crystallographic techniques via in-house and synchrotron sources. These include structure by powder methods, or by obtaining single crystal data on our materials upon the application of high pressure, at ultra-low temperatures or when irradiated with light. Furthermore, we are interested in the structural ordering of room temperature liquids and the physical properties of “soft” materials probed via SAXS techniques.
Please feel free to browse this site and contact us if you have any questions of enquiries. Finally, please check the opportunities page if you are interested in joining our group.
Congrats to all on the helix paper! It has been highlighted in Chemistry World:
Finally! The helix paper is now online as an accepted manuscript:
http://pubs.rsc.org/en/content/articlelanding/2018/cc/c8cc03295e#!divAbstract
Congrats All.
Congrats to Max Edney who submitted his thesis and survided his viva. Great work Max.
Finally obtained picture perfect SEM images of our flexible crystals - amazing! Check out the slipped 2D layers!
We now have page numbers for our JACS paper! Full citation: J. Am. Chem. Soc., 2018, 140, 3846-3849.
Our paper is finally published as an ASAP! Congrats to Demetris for weathering the crystallographic storm!
J. Am. Chem. Soc., Article ASAP
Publication Date (Web): March 7, 2018
Crystals of the heterocyclic radical naphtho-1,3,2-dithiazolyl NDTA display magnetic bistability with a well-defined hysteretic phase transition at Tc↓ = 128(2) K and Tc↑ = 188(2) K. The magnetic signature arises from a radical/dimer interconversion involving one of the two independent π-radicals in the P1̅ unit cell. Variable temperature X-ray crystallography has established that while all the radicals in HT-NDTA serve as paramagnetic (S = 1/2) centers, half of the radicals in LT-NDTA form closed-shell N–N σ-bonded dimers (S = 0) and half retain their S = 1/2 spin state. The wide window of bistability (60 K) may be attributed to the large structural changes that accompany the phase transition.