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Wired

New research by Professor Ann Graybiel may indicate that the FOXP2 gene in humans plays a major role in how we learn speech, writes Chris Higgins for Wired. Mice given the gene were able to learn their way through a maze more quickly than those without it.

The Huffington Post

Jacqueline Howard of The Huffington Post writes about research by Professor Ann Graybiel that looked at the effect of the human Foxp2 gene in mice. The work could lead to a greater understanding of how the human brain learns speech.

Reuters

Sharon Begley of Reuters writes about Professor Ann Graybiel’s research on the effect of the human FOXP2 gene on mice. “By isolating the effects of one gene, the work sheds light on its function and hints at the evolutionary changes that led to the unique capabilities of the human brain,” writes Begley.

New Scientist

Research by Professor Ann Graybiel demonstrated that providing mice with the human version of the FOXP2 gene allowed them to learn repetitive patterns more quickly, reports Clare Wilson of The New Scientist. This may demonstrate that the gene plays an important role in how humans learn to speak, says Graybiel.

Scientific American

In a piece for Scientific American about the advantages of dyslexia, Matthew H. Schneps highlights an MIT study that found that people with dyslexia “can distribute their attention far more broadly than do typical readers,” and often have heightened visual and auditory senses. 

WBUR

Rachel Zimmerman of WBUR reports on how neuroscientists have located a neural pathway that could transform how dyslexia is addressed. “In preliminary findings, researchers report that brain measures taken in kindergartners — even before the kids can read — can “significantly” improve predictions of how well, or poorly, the children can master reading later on,” Zimmerman reports. 

Boston Magazine

MIT scientists have compared the brain activity of adults who had ADHD as children and adults who still have the disorder, reports Melissa Malamut in Boston Magazine. Researchers uncovered, “key differences in a brain communication network that is active when the brain is at wakeful rest and not focused on a particular task,” Malamut writes.