Melatonin, a hormone produced in the human brain, appears to suppress the growth of breast cancer tumors.
Researchers at Michigan State University published this finding in the current issue of Genes and Cancer. While treatments based on this key discovery are still years away, the results give scientists a key foundation on which to build future research.
Michigan State University professor and researcher André Bachmann is collaborating on cancer-fighting research that could change the way we treat the illness.
Bachmann, professor of pediatrics and associate chair for research in the MSU College of Human Medicine’s Department of Pediatrics and Human Development, is working with plant biologist Robert Dudler from the University of Zurich to develop a natural bacterium produced chemical with anti-cancer properties.
Cancer treatments are moving in many new directions, which is helping oncologists target tumors and tailor treatments to individual patients. Most of these concepts have been developed over the last 10 years. New research funding by the American Association for Cancer Research (AACR) hopes to inspire even more research to push innovative treatment results.
Sophia Lunt, MSU assistant professor of biochemistry and molecular biology (BMB) in the College of Natural Science (NatSci), certainly understands this concept and, as a result, is one of only four scientists nationally to receive a 2016 NextGen Grant for Transformative Cancer Research from the AACR. Lunt was formally recognized during an awards ceremony this week at AACR’s 2016 annual meeting in New Orleans.
What does Brad Pitt have in common with a fruit fly? His Hollywood hairstyles cover a prominent cowlick – the swirl of hair that is caused by a patterning mechanism also active in our two-winged friends – that similarly feature “polarized” hair patterns.
In new research led by Michigan State University and featured in the current issue of Scientific Reports, researchers have discovered that these polarity genes, which do more than create cowlicks, are regulated by a tumor suppressor protein. On the macro scale, their presence can be seen in feather and fish scale patterns. On the cellular level, they are directly regulated by a cancer protein, the retinoblastoma tumor suppressor protein.