Researchers at Helmholtz Munich and the Technical University of Munich (TUM) have developed Nicheformer, the first large-scale foundation model that integrates single-cell analysis with spatial ...

Biological tissues have a remarkable ability to organize and change shape, driven by forces generated by their own cells. One of the major challenges in bioengineering is harnessing this natural ...

Cells in our bodies squeeze through dense tissue channels, thread past neighboring cells and navigate every nook and cranny ...

Researchers at Helmholtz Munich and the Technical University of Munich (TUM) have developed Nicheformer, the first large-scale foundation model that integrates single-cell analysis with spatial ...

Scientists have uncovered a surprisingly simple “tissue code”: five rules that choreograph when, where, and how cells divide, move, and die, allowing organs like the colon to remain flawlessly ...

Scientists at Duke-NUS Medical School have developed two powerful computational tools that could transform how researchers study the "conversations" between cells inside the body. The tools, called ...

Researchers have developed a bioprinting technique to regenerate bone tissue, spurring bone growth and vascularization.

Gene expression reveals that different types of human cell can work as a unit. These cellular modules, found in several tissues, change during disease. However, suitable computational methods are ...

T cells may be able to do something scientists did not previously know they could: physically sense the tissues around them. A McGill University -led study suggests this ability could reshape ...