Targeting cancer stem cells may be a more effective way to overcome cancer resistance and prevent the spread of squamous cell carcinoma — the most common head and neck cancer and the second-most common skin cancer, according to a new study. Head and neck squamous cell carcinoma is a highly invasive form of cancer and frequently spreads to the cervical lymph nodes.

Scientific research builds its own momentum as one discovery triggers another, building an ongoing wave of unexpected possibilities. In the world of glaucoma, such a surge began when advances in stem cell research opened doors experts had never imagined.

Adult stem cells collected directly from human fat are more stable than other cells — such as fibroblasts from the skin — and have the potential for use in anti-aging treatments, according to researchers.

A single blood test and basic information about a patient’s medical status can indicate which patients with myelodysplastic syndrome (MDS) are likely to benefit from a stem cell transplant, according to new research.

Researchers have discovered a new efficient way to generate thyroid cells, known as thyrocytes, using genetically modified embryonic stem cells. The findings are the first step to developing a similar protocol using human stem cells that will allow the modeling of thyroid disease to better understand its causes and the development of therapies.

Stem cell secretions, called exosomes, appear to protect cells in the retina, the light-sensitive tissue in the back of the eye, a new study in rats shows. The findings point to potential therapies for glaucoma, a leading cause of blindness in the United States.

Mouse pancreases grown in rats generate functional, insulin-producing cells that can reverse diabetes when transplanted into mice with the disease, according to researchers.

Generating mature and viable heart muscle cells from human or other animal stem cells has proven difficult for biologists.

A new study has introduced a new treatment for skeletal system injuries, using stem cells from human bone marrow and a carbon material with photocatalytic properties.

Today, a stroke usually leads to permanent disability – but in the future, the stroke-injured brain could be reparable by replacing dead cells with new, healthy neurons, using transplantation. Researchers have taken a step in that direction by showing that some neurons transplanted into the brains of stroke-injured rats were incorporated and responded correctly when the rat’s muzzle and paws were touched.