Winpenny is classed as one of the leading synthetic chemists of polymetallic cage complexes.[5] He has developed a wide range of heterometallic rings as a new class of molecular magnets,[5] which have been exploited to develop new physics and techniques with proposals to use them in quantum information processing. These rings also show unique capabilities to act as resist materials for electron beam lithography (EBL).
A wide range of literature has been published by Winpenny on the synthesis, structural and property analysis of heterometallic rings, polymetallic cages, single molecule magnets, and f-block and d-block metal complexes.[13][14][15] The published work by Winpenny has gained more than 24,000 citations as of 2020.[8]
In 2007, Winpenny also reported the first intrinsic spin-lattice (T1) and phasecoherence (T2) relaxation times in molecular nanomagnets. The results showed that the value of T2 in deuterated samples were of several orders of magnitude longer than the duration of spin manipulations which satisfies the prerequisite for the deployment of molecular nanomagnets in quantum information applications.[16]
In 2016, a research led by Winpenny, Nicholas F. Chilton and Yan‐Zhen Zheng was able to report a monometallic dysprosium complex which showed the largest effective energy barrier to magnetic relaxation of Ueff = 1815 K.[17] The research also showed the largest blocking temperature (TB) for a monometallic complex.
Awards and nominations
RSC Prize for Emerging Technologies in the area of materials (2016)[1]
Winpenny, Richard E. P. (2006). "Single-Molecule Magnets and Related Phenomena". In Mingos, D.M.P. (ed.). Structure and Bonding. Springer-Verlag, Germany. pp. 100–110. ISBN978-3-540-33239-8.
^Winpenny, Richard E.P. (2006). "Single-Molecule Magnets and Related Phenomena". In Mingos, D.M.P. (ed.). Structure and Bonding. Springer-Verlag, Germany. pp. 100–110. ISBN978-3-540-33239-8.