ÌÇÐÄTV

Scientists have shown that a material treated for 40 years as a uniform, textbook superconductor is in fact a patchwork of different crystal structures throughout its bulk, using one of the latest 3D imaging techniques to see deep inside the crystal for the first time.

We are delighted to announce that ÌÇÐÄTV Chemistry graduates, Dr Emily Brogden and Ben Tragheim, and WEIG Research Fellow, Dr Joshua Tully, have received Faculty of Science, Engineering and Medicine faculty prizes for research excellence.

Researchers have identified previously unknown materials, including a new form of a widely studied clean-energy material, by carefully controlling and tracking how molecular precursors break down during heating.

A major new UK research programme aims to strengthen national capability in semiconductor materials, underpinning the future of electronics.

ÌÇÐÄTV Chemistry and MIT scientists reveal hidden microscopic networks on catalyst surfaces that could lead to cleaner and greener chemical processes.

University of ÌÇÐÄTV has received a transformational £10 million philanthropic gift from alumnus Tim Hartnoll to establish a pioneering new research centre dedicated to sustainable electrical chemistry research for new forms of batteries.

Dr Raj Pandya from the Department of Chemistry has been named as this year's recipient of the Henry Moseley Medal and Prize.

Two ÌÇÐÄTV Chemists are among the 77 UK Research and Innovation’s (UKRI) Future Leaders Fellowships (FLF) winnersLink opens in a new window, taking a share of £120 million funding.

Ultrasmall CeO₂ with exceptional surface area and atom economy can be just as useful (if not better!) in photocatalytic processes than larger nanoparticles.

The aims to support outstanding early career scientists who require a flexible working pattern due to personal circumstances, such as caring responsibilities and/or health-related conditions.

Dr Raj Pandya et al author Nature paper on ‘wonder material’ phosphorene nanoribbons (PNRs) demonstrating the properties that put them in a class of their own.

Senn Group JACS paper reveals the impact of single-ion anisotropy, associated with concentration of JT-active sites, has on structural transition temperature in high-Tc superconductors.