Superconductors are quantum materials that are perfect transmitters of electricity and electronic information. Although they form the technological basis of solid-state quantum computing, they are also its key limiting factor because conventional superconductors only work at temperatures near -270 C. This has motivated a worldwide race to try to discover higher temperature superconductors. Materials containing CuO2 crystal layers (cuprates) are, at present, the best candidate for highest temperature superconductivity, operating at approximately -120 C.

Congratulations to Professor Achillefs Kapanidis and Mr Bo Jing, CEO of Oxford Nanoimaging who have been named as BBSRC’s Innovator of the year 2019 – an award celebrating excellent research which demonstrates impact.

Dr Roger Johnson has been awarded the BTM Willis prize for his work on the understanding of magnetic and magnetoelectric phenomena achieved through state-of-the-art structural studies of complex crystalline solids. The prize is jointly awarded by the Institute of Physics and Royal Society of Chemistry Neutron Scattering Groups to an early career researcher. Dr Johnson is a Royal Society University Research Fellow in the Quantum Materials section of the sub-department of Condensed Matter Physics.

The recent development of gene editing using biological system CRISPR, creates the prospect of dramatic developments in medicine for gene repair and cancer therapy. The CRISPR/Cas9 system allows targeted DNA cleavage and hence editing of the genome. However, unwanted DNA cuts, resulting from non-specific delivery to off-target cells, could promote tumorigenesis. Cell-specific activation of CRISPR/Cas9 is essential to avoid this problem.

Microgeneration is the generation of power on a small scale – for individual homes, communities or in emergency situations. Microgeneration is also important if you are on the move and isolated from the grid e.g. while boating or in a recreational vehicle. the move – for boats or recreational vehicles. The Oxford Microgeneration System converts mechanical energy from wind, water or any other means into electrical power.

Carbon nanotubes (CNTs) have attracted a lot of attention for their potential use in electronic and energy-related devices. In particular, conductive carbon nanotube (CNT) films are expected to be applied in anti-static materials, electromagnetic interference (EMI) shielding materials and other opto-electronic devices like solar cells. Poor solubility of CNTs in organic and aqueous solvents has, so far, been overcome with non-covalent wrapping with conjugated polymers, but at a high cost.