Below is a collection of resources on the brain. Some are directly related to the brain based visual impairment, CVI. Others are not about CVI specifically, but span the topics of brain injury, education, human development, learning, medical progress and technology, rehabilitation, sensory processing, stroke, neuroplasticity and more. All are intended to further interest and understanding of the brain. Just like our knowledge of the brain constantly grows, so will this list.
Being barefoot benefits brain development and more. Turns out the feet are the most nerve-rich parts of the human body, which means they contribute to the building of neurological pathways in the brain.
The Blind Woman Who Sees Rain, But Not Her Daughter’s Smile. Imagine a world that is completely black. You can’t see a thing — unless something happens to move. You can see the rain falling from the sky, the steam coming from your coffee cup, a car passing by on the street. This is the case of a woman who was blinded by a stroke at 29 years old.
The Brain That Remade Itself. What happened to Collins is a remarkable example of neuroplasticity: the ability of the brain to reorganize, create new connections, and even heal itself after injury. Neuroplasticity allows the brain to strengthen or even recreate connections between brain cells—the pathways that help us learn a foreign language, for instance, or how to ride a bike.
Cerebral versus Ocular Visual Impairment: The Impact on Developmental Neuroplasticity, Frontiers in Psychology. There has been a more recent and dramatic rise in the incidence of children born with profound visual impairment not fitting with the typical profile of ocular blindness or visual impairment related to acquired brain injury. In this situation, the term cortical/cerebral visual impairment (CVI) was coined to describe damage to visual pathways and structures occurring during early perinatal development. The term “cortical” visual impairment was originally proposed to describe visual dysfunction in pediatric populations of non-ocular cause, and its presumed association with damage to early visual cortical areas.
How brains learn to see. TED Talk by Pawan Sinha. Visual neuroscientists Pawan Sinha details his groundbreaking research into how the brain’s visual system develops. Sinha and his team provide free vision-restoring treatment to children born blind, and then study how their brains learn to interpret visual data. The work offers insights into neuroscience, engineering and even autism.
How you talk to your child changes their brain. In a study of children between the ages of 4 and 6, cognitive scientists at MIT found that such back-and-forth conversation changes the child’s brain. Specifically, it can boost the child’s brain development and language skills, as measured both by a range of tests and MRI brain scans. This was the case regardless of parental income or education.
Painting The Brain As A Sacred Object. Using the techniques of microetching and lithographing, neuroscientist Greg Dunn has created a project called “Self Reflected,” which visualizes what it might look like to see all the neurons of the brain connected and firing.
The Right Brain Develops First ~ Why Play is the Foundation for Academic Learning. Did you know that the right brain develops first? It does so by the time children are 3-4 years of age. The left brain, on the other hand, doesn’t fully come online until children are approximately seven years old; hence the first seven years being recognized as such a critical period in child development.
Study: Brain’s Wiring Connected to Sensory Processing Disorder. Researchers at UC San Francisco have found that children with sensory processing disorder (SPD) have altered pathways for brain connectivity when compared to typically developing children, and the difference predicts challenges with auditory and tactile processing.
Why Kids Should Keep Using Their Fingers to do Math. Stopping students from using their fingers when they count could, according to new brain research, be akin to halting their mathematical development. Fingers are probably one of our most useful visual aids, and the finger area of our brain is used well into adulthood. The need for and importance of finger perception could even be the reason that pianists, and other musicians, often display higher mathematical understanding than people who don’t learn a musical instrument.