Biological sciences major Adam Reese may have found the key to keep fat cells from forming.
The University of Delaware junior believes he has identified the trigger that turns a stem cell into a fat cell. Located on the surface of cells, the trigger — a protein called endoglin — regulates what type of cell an existing stem cell will become.
Working in the UD Department of Biological Sciences‘ laboratory of cellular signaling and dynamics with assistant professor Anja Nohe, Reese investigates ways to combat osteoporosis. His findings may also have implications for obesity.
Patients afflicted with osteoporosis lose bone mass as
Image via Wikipedia
It has been about 8 years since Salsabil, the first Palestinia baby suffering congenital immunodeficiency (Ada-Scid), has been healed using gene therapy. And it has been about 7 years since her story to Abdul Rahim’s one, a Pakistani baby born in the end of 2006 in Qatar.
His parents did lose 3 children because of Ada-Scid, and Abdul’s case is one of the most symbolic.
Just after his birth doctors did diagnose his illness and succeeded to healt his pneumonia during his first days of life.
So Abdul’s parents and doctors who were follow him contacted the San Raffaele Telethon
Bone marrow stromal cells [BMSCs; also known as mesenchymal stem cells (MSCs)] effectively suppress inflammatory responses in acute graft-versus-host disease in humans and in a number of disease models in mice. Many of the studies concluded that BMSC-driven immunomodulation is mediated by the suppression of proinflammatory Th1 responses while rebalancing the Th1/Th2 ratio toward Th2.
Never mind facial masks and exfoliating scrubs, skin takes care of itself. Stem cells located within the skin actively generate differentiating cells that can ultimately form either the body surface or the hairs that emanate from it. In addition, these stem cells are able to replenish themselves, continually rejuvenating skin and hair. Now, researchers at Rockefeller University have identified two proteins that enable these skin stem cells to undertake this continuous process of self-renewal.
The work, published in Nature Genetics, brings new details to the understanding of how stem cells maintain — and lose — their status as stem cells
UC San Diego scientists have dramatically improved the success rate of genetically modifying human embryonic stem cells. This advance brings the promise of better treatment of genetic diseases.
The new approach works in 20 percent of embryonic stem cells, compared to less than 1 percent treated with standard methods, said Yang Xu, a UCSD professor of biology, who led the study, assisted by Hoseok Song and Sun-Ku Chung, postdoctoral fellows in his lab.
The study was published Thursday in the journal Cell Stem Cell.
Some genetic diseases can’t be studied adequately in animals, Xu said, so the ability to produce human cells