Knight Initiative News

Different genes linked to autism can lead to the same symptoms and molecular pathways, according to a Wu Tsai Neuro Big Ideas-funded collaboration between the Pasca Lab and UCLA Health researchers

Neural organoids have been revealing 'bombshell secrets about brain development.' But what are they?

A recent meeting gathered scientists, ethicists, patient advocates and more to discuss organoid ethics.

Researchers studying the human brain shared a lot of fascinating research last year, including a study from Wu Tsai Neuro scientists who replicated the brain's pain circuits.

Organoids are bits of neural tissue that model human brain development. Their use in science makes some uneasy, in part because the brain is so closely tied to our sense of self.

Stanford Data Science and the Wu Tsai Neurosciences Institute have launched a collaborative hub to accelerate discovery in neuroscience and train the next generation of data-driven neuroscientists

Wu Tsai Neuro researchers reprogrammed fruit fly brain development and behavior using new discoveries about how attractive and repulsive molecules build neural circuits

Scientists and ethicists including Wu Tsai Neuro affiliates Sergiu Pașca and Hank Greely argued for an international process to address the ethical and social questions raised by organoids.

By studying why some kids struggle to read, cognitive neuroscientist Jason Yeatman hopes to make education work better for all students and deepen science’s understanding of the brain.

Premature babies who heard recordings of their mothers reading to them had more mature white matter in a key language area of the brain, Wu Tsai Neuro affiliate Heidi Feldman and colleagues found.

Stanford undergrads and local community college students paired with Wu Tsai Neurosciences Institute researchers to find new ways to head off strokes, predict Alzheimer's disease, and more.

Wu Tsai Neuro affiliate Guosong Hong and colleagues developed a new technique to observe neuron formation and firing in juvenile mice, potentially enhancing our understanding of neurodevelopmental disorders and enabling new interventions.

In this episode, we explore the fascinating neuroscience behind how children learn to read with Bruce McCandliss, director of the Stanford Educational Neuroscience Initiative.

In which neuroscientist Dan Abrams shares the quest to understand how our brains are tuned for voices, and why this instinct fails to develop in children with autism.

Stanford neuroscientist Sergiu Pasca is pioneering technology to recreate human brain tissue and neural circuits in the lab – giving scientists unprecedented access to human brain development and opening new possibilities for treating disorders from psychiatric disease to chronic pain.

A decade ago, three generations of Stanford scientists banded together to publish a landmark study on one of the brain’s most prevalent structures. Today, Wu Tsai Neurosciences Institute researchers are discovering that myelin is key to just about every aspect of neurological health.

Researchers with the Wu Tsai Neuro–funded Stanford Brain Organogenesis project have rebuilt, in laboratory glassware, the neural pathway that sends information from the body’s periphery to the brain.

This week on the podcast, Stanford cell biologist Brad Zuchero takes us on a tour of the frontiers of glia-science

By studying never-before-seen details of brain connectivity in human infants, researchers at the Wu Tsai Neurosciences Institute have identified how a balance of innate structure and flexible learning produces our remarkably organized visual brains.

Associate professor Jason Yeatman discusses the adoption of the Stanford-developed Rapid Online Assessment of Reading (ROAR) as a state-approved dyslexia screening tool in California.