AI designs new antibiotics to take on drug-resistant superbugs
Penn engineers have built an AI model that creates new antibiotics – and early tests show some work as well as existing approved drugs.
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Penn engineers have built an AI model that creates new antibiotics – and early tests show some work as well as existing approved drugs.
Northwestern University researchers have created DNA-coated nanoparticles that deliver CRISPR into cells three times more effectively while reducing toxicity. The advance could overcome one of the biggest barriers to gene-editing therapies.
Researchers at Mount Sinai have identified three antibodies that target mpox and prevent severe disease in vivo. The work positions A35-specific antibodies as candidates for therapeutic development.
A small subset of newborn liver cells – known as clonogenic hepatocytes – drives over 90 percent of adult liver growth. New research shows how targeting these cells early could improve the effectiveness and durability of paediatric gene therapies.
New research from Gladstone Institutes shows that chronic overactivation of dopamine-producing neurons can directly trigger their death, offering new insights into why these cells deteriorate in Parkinson’s disease which could lead to potential therapies to slow its progression.
Scientists at Tufts University have developed an AI tool that demonstrates how tuberculosis drugs kill bacteria – an advancement that could speed-up the discovery of shorter, more effective treatments.
UCLA scientists have created the first detailed map of how the ovarian reserve forms in primates, offering new insights – and potential new treatments – for infertility, polycystic ovary syndrome (PCOS) and hormone-related conditions.
Most gene therapies rely on static DNA promoters to control gene activity, but nature uses far more sophisticated tools. Dr Matthew Dale explores how harnessing RNA-level control could enable treatments that sense and respond in real time, offering unprecedented precision and safety.
Brazilian researchers have discovered that SARS-CoV-2 targets testosterone-producing cells in the testicles, hijacking cholesterol and lipid metabolism in order to replicate. The findings could lead to new therapies for treating the disease based on drugs that disrupt lipid metabolism.
Kyoto University researchers have discovered a new DNA-organising protein complex called STAG3-cohesin – a protein that appears in human B cells and blood cancers. This discovery could potentially lead to new approaches for treating infertility and certain cancers.
Researchers at the University of Waterloo have developed a modified bacterial virus that can deliver gene therapies cheaper and more efficiently – moving us closer toward personalised, affordable genetic medicine.
Brazilian researchers have developed a new Zika virus vaccine that is safe and effective in mice – protecting against both brain inflammation and testicular damage while avoiding cross-reactions with dengue.
Researchers have found that mitochondrial dysfunction in the blood-brain barrier may drive neuropsychiatric disease in 22q11.2 deletion syndrome – and that a cholesterol drug could restore barrier function and ease symptoms.
The 2025 chikungunya outbreak has surged from the Indian Ocean to Europe, prompting an urgent global research response. With no antivirals and limited vaccine access, laboratories and biotech firms are under pressure to deliver solutions fast.
Researchers at UC San Diego have discovered a graphene-based technology that accelerates the maturation of human brain organoids, offering a safer, non-invasive way to model diseases like Alzheimer’s.