Press Releases
Funding for new research to deliver cleaner and greener chemicals
Researchers have been awarded funding to work with a global leader in the speciality chemicals industry to create cleaner and greener chemical processing methods for everyday products in a bid to help the government meet its carbon neutral targets.
University of Warwick Spin-Out, CryoLogyx, partners with investors
The University of Warwick spin-out company, CryoLogyx, has received a further investment from Oxford Technology Management and private investors, alongside £300k from InnovateUK.
Solving the puzzle of polymers binding to ice for Cryopreservation
When biological material (cells, blood, tissues) is frozen, cryoprotectants are used to prevent the damage associated with the formation of ice during the freezing process. New polymeric cryoprotectants are emerging, alongside the established cryoprotectants, but how exactly they manage to control ice formation and growth is still largely unknown. This is especially true for PVA, a deceptively simple synthetic polymer that interacts with ice by means of mechanisms that have now been revealed at the atomistic level thanks to researchers from the University of Warwick.
Scientists able to see how potential cancer treatment reacts in single cell
Using a 185 metre beamline at the Diamond synchrotron, researchers could see how Osmium, a rare precious metal that could be used for cancer treatments, reacts in a single human lung cancer cell. This is a major step forward in discovering new anti-cancer drugs for researchers at the University of Warwick.
Cell-Freezing Market to be transformed by University of Warwick Spin-Out CryoLogyx
The University of Warwick spin-out company, CryoLogyx, has been awarded £300k from InnovateUK to develop innovate cryopreservation agents with applications in the diagnostic, medicines discovery and cell-based therapy markets.
Soil bacteria hormone discovery provides fertile ground for new antibiotics
An international team of scientists working at the University of Warwick, UK, and Monash University, Australia, have determined the molecular basis of a biological mechanism that could enable more efficient and cost-effective production of existing antibiotics, and also allow scientists to uncover new antibiotics in soil bacteria.