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A discovery opens the possibility of one day restoring loss of vision by activating the retina’s ability to regenerate. Researchers at Baylor College of Medicine, the Cardiovascular Research Institute and the Texas Heart Institute reveal in the journal Cell Reports that although the mammalian retina—a layer of specialized nerve cells that mediates vision and is located on the back of the eye- does not spontaneously regenerate, it has a regenerative capacity that is kept dormant by a cellular mechanism called the Hippo pathway. The discovery opens the possibility of activating the retina’s ability to restore lost vision by manipulating this pathway.

“Damage to the can lead to irreparable loss of vision in humans and other mammals because their retinas do not regenerate,” said lead author Dr. Ross A. Poché, assistant professor of molecular physiology and biophysics and member of the Dan L Duncan Comprehensive Cancer Center at Baylor. “However, other animals such as zebrafish can reverse blindness thanks to specialized cells in the retina called Müller . When the retina is damaged, Müller glial cells proliferate and differentiate into the lost , effectively replacing injured cells with fully functional ones.”

Although Müller glial cells in injured mammalian retina do not restore vision as their counterpart in zebrafish do, other researchers have shown that, when the mammalian retina is injured, a small subset of Müller glial cells takes the first steps needed to enter the proliferation cycle, such as acquiring molecular markers scientists expect to see in a proliferating cell.

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SpiNNaker was built under the leadership of Professor Steve Furber at The University of Manchester, a principal designer of two products that earned the Queen’s Award for Technology —the ARM 32-bit RISC microprocessor, and the BBC Microcomputer.

“The ultimate objective for the project has always been a million cores in a single computer for real time brain modelling applications, and we have now achieved it, which is fantastic.” — Professor Steve Furber, The University of Manchester

Inspired by the human brain, the SpiNNaker is capable of sending billions of small amounts of information simultaneously. The SpiNNaker has a staggering 1 million processors that are able to perform over 200 million actions per second.

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Neuroscience, computer vision collaborate to better understand visual information processing PITTSBURGH—Neuroscientists and computer vision scientists say a new dataset of unprecedented size — comprising brain scans of four volunteers who each viewed 5,000 images — will help researchers better understand how the brain processes images. Researchers at Carnegie Mellon University and Fordham University, reporting today in the journal Scientific Data, said acquiring functional magnetic resonance imaging (fMRI) scans at this scale presented unique challenges. Each volunteer participated in 20 or more hours of MRI scanning, challenging both their perseverance and the experimenters’ ability to coordinate across scanning sessions. The extreme.


will be premiering at Tribeca Film Festival in New York.


For the past two years, I have been involved with a documentary on the future of the brain. As announced today in Wired, I’m excited to share that the film, I AM HUMAN, will be premiering at Tribeca Film Festival today in New York! Here is a sneak peek.

The movie follows three people – a woman with Parkinson’s, a quadraplegic, and a blind man – and their journeys with implantable brain interfaces. The film is inspiring, invites fresh reflection on this unique historical moment, and promises to kickstart an important dialogue around our shared future.