A new analytical method could improve how cancer treatments are designed – by allowing scientists to track, for the first time, exactly where inside a living cell a drug accumulates.
Not all precancerous lesions will develop into tumours, yet the majority are treated as if they were already breast cancer. A new marker could help identify the relevant cases and avoid overtreatment.
New research reveals that extracellular vesicles derived from menstrual blood stromal cells can improve cartilage repair, suggesting an innovative cell-free therapy for osteoarthritis.
A new type of “breathing” lung organoid enables quantitative measurement of how easily the lung expands - and may provide a new way to study diseases such as pulmonary fibrosis.
As women age, their breast tissue goes through major changes, with the most dramatic changes at menopause, but also during pregnancy and childbirth. A map reveals the impact on breast cancer.
Why do some cancer cells develop treatment resistance? The answer may lie in hidden “storage hubs” inside tumour cells, which create uneven drug exposure across tumours, according to new research.
Due to its rapid spread in the abdomen, ovarian cancer is often only detected at an advanced stage. Now, scientists have discovered how this cancer takes advantage of other cells for metastasis.
Why do some tumours spread while others remain localised? Using colon cancer cells, scientists pinpointed the criteria that influence metastasis risk, and identified a way to assess its probability.
Pioneering research has shown that heart muscle cells regrow after a heart attack, opening up the possibility of new regenerative treatments for cardiovascular disease.
Immunotherapy has been hailed as a breakthrough in cancer treatment. But new research reveals: under sustained treatment pressure, cancer does not simply weaken — it adapts, learns, and fights back.
A major new initiative aims to enable the development of advanced, specific and highly reproducible human in vitro models for greater understanding of disease and the acceleration of new medicines.
Researchers have created a system that uses generative AI to study the shape and structure of blood cells, and spot unusual or rare cells that may indicate disease such as leukaemia.
Why does amyotrophic lateral sclerosis (ALS), or Lou Gehrig’s disease, attack motor neurons, the cells that control body movement, while others are spared? A new study may have found an answer.
University of Stuttgart scientists develop enhanced CRISPR technique that makes genetic loss-of-function analyses more efficient and reproducible for medical research.
A new technique has measured boron in individual cancer cells for the first time, enabling researchers to better understand how drugs act to kill tumours in some cancers.
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A novel approach to bioprinting may lead to new ways to treat skin burns and severe wounds. With this, the researchers aim to create new skin that does not become scar tissue but a functioning dermis.
How cancer cells survive the journey through the body to form metastases is still poorly understood. New insights into how cells survive intense physical stress could pave the way for new treatments.
In a new joint research center, scientists from Germany and South Korea aim to develop new technologies at the interface of nanoscience, synthetic cell biology, and neuroscience.
