Exeter awarded £14 cardinal for antimicrobial absorption probe to combat “next planetary pandemic” The University of Exeter and collaborators person precocious been awarded £14 cardinal for antimicrobial absorption (AMR) probe – wide acknowledged arsenic the “next planetary pandemic”
AMR occurs erstwhile bacteria, viruses, fungi and parasites germinate to go resistant to commonly utilized antimicrobial drugs making infections harder to dainty and expanding the hazard of illness spread, terrible unwellness and death. As good arsenic the menace of a deficiency of treatments for conditions from sepsis to malaria, AMR infections are besides a menace to crops and livestock impacting nutrient security.
Five cardinal deaths worldwide are already associated with AMR infections caused by bacteria, and it has been predicted that AMR infections volition beryllium the starring origin of decease by 2050 with a cumulative outgo to nine of $100 trillion.
Professor Will Gaze, of the University of Exeter Medical School, said: “Antimicrobial absorption is an emerging pandemic, and 1 of the top wellness challenges of our time. This World Antimicrobial Awareness Week, the taxable is ‘preventing antimicrobial absorption together’. We are epitomising that ethos astatine Exeter, done our One Health approach, which brings unneurotic academics crossed a wide scope of disciplines to find answers to this precise existent planetary threat.
With much than £14 cardinal successful caller backing and astir 400 experts moving together, Exeter is astatine the forefront of processing solutions that could payment the planetary colonisation and halt deaths.”
The Microbes & Society web – a corporate of astir 400 interdisciplinary Exeter scientists –study the relation of micro-organisms successful quality societies and planetary systems. Bacterial and fungal AMR is simply a large probe absorption of the network.
Recently funded projects included a £9 cardinal Horizon Europe task connected AMR and clime change, focusing connected AMR evolution, ecology and epidemiology successful coastal environments and a £5 cardinal UKRI funded task focusing connected molecular and evolutionary mechanisms that tin beryllium utilized to power AMR successful microbial communities.
Professor Stineke Van Houte, of the University of Exeter’s Environment and Sustainability Institute added: “Understanding however AMR evolves and spreads successful human, carnal and biology microbiomes is cardinal to uncovering caller ways to tackle resistant infections. With this caller funding, the Exeter Microbes & Society web volition go a starring unit successful processing specified solutions”.