Discovery opens up for new ways to treat chlamydia
A newly discovered molecule paves the way for research into new antibiotics that kill chlamydia.
A newly discovered molecule paves the way for research into new antibiotics that kill chlamydia.
Infinite Proposals is the title of this year’s Master’s exhibition from Umeå Academy of Fine Arts at Umeå University. It will be unveiled with an Art Friday at Bildmuseet on 23 May. A media preview will be held on Wednesday 21 May at 10:00–11:00 (RSVP). The newly graduated artists will be there to talk about their work.
Belkis Ayón (1967–1999) is one of Cuba’s most prominent artists. In the first Nordic presentation of the artist’s work, Bildmuseet presents creative highlights from her brief but intense career, from the mid-1980s to the late 1990s. The exhibition opens on Art Friday, 23 March, and will be previewed to the media by arrangement from Monday, 19 May. Welcome!
Researchers at Umeå University, Sweden, have discovered a previously unknown type of connective tissue cells that surround cancer cells in pancreatic tumours. The newly discovered cells counteract tumor development and may therefore be a target for research into new treatments for pancreatic cancer, which is one of the deadliest forms of cancer.
Antibiotic resistance is a global health challenge that could overtake cancer mortality within a few decades. In a new study, researchers at Umeå University, Sweden, show that the emergence of resistance can be understood in the mechanism of how bacteria build up defences against being infected by viruses.
Researchers at Umeå University in Sweden, in collaboration with scientists from Finland, Vietnam, India, and Italy, have developed a catalytic system to convert lignin structures into highly valuable chemicals. This innovative technology offers promising solutions to pressing environmental and energy challenges.
A new study from Umeå University reveals how SARS-CoV-2 variants, including Omicron, have adapted to bind more effectively to human pulmonary cells. The stronger binding is explained by an increased and optimised interaction between the virus and heparan sulfate, a long sugar molecule on the cell surface.