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Kabuki Syndrome science, illuminated by AI
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Motor Skills

Virtual Reality Game Improved Hand Skills in Children With Movement Disorders

A small study found that an immersive VR game boosted coordination and fine motor control in children with developmental coordination disorder — suggesting potential for at-home motor practice in Kabuki Syndrome.
What is Developmental Coordination Disorder?
DCD is a condition where kids struggle with motor skills—things like writing, catching a ball, or tying shoes. It affects about 5-6% of school-aged children and makes everyday tasks harder.
Many Kabuki children work hard to master everyday movements — dressing, handwriting, catching a ball.
The researchers tested a game where players slice colored blocks in time to music, using a virtual reality headset. Kids played it in their own living rooms.
The results were promising — and the children genuinely enjoyed themselves.
Who this study looked at
Neuroscience

The “bubble” around the body is a social organ

What is peripersonal space ?
Peripersonal space is the bubble of space immediately around our body. It's where we can reach out and touch things. Scientists study it with different tasks, like reaching judgments and stop-distance.
Research on peripersonal space — the brain-monitored zone within arm's reach — shows it helps govern cooperation, emotional reading, and joint attention.
Neuroscience

“Don't stand so close to me!”

What is peripersonal space?
It's the space immediately around your body, like the area you can reach with your arms. Your brain keeps track of this space to help you move safely and interact with things around you.
A review of how the brain tracks the zone within arm's reach may explain why Kabuki kids struggle with distance and personal space —and why practice could reshape that map.
Gene Regulation

Butyrate Reversed Gene Chaos in Kabuki Cells

Kabuki is called a 'chromatin-related' disorder. What does that mean?
Chromatin is how our DNA is packaged inside cells. In Kabuki, a change in the gene KMT2D disrupts this packaging, which changes how other genes get switched on and off.
Butyrate, a compound made when bacteria digest dietary fiber, restored normal gene activity patterns in blood cells from children with Kabuki syndrome—offering a potential path toward simple dietary or supplement-based therapy
Neuroscience

The Brain's Control Center Is Both One Thing and Many

What is cognitive control?
It's the mental skill that keeps our actions goal-directed and flexible, instead of running on autopilot. It helps us focus, stop unwanted actions, hold things in mind, and switch between tasks.
A review of cognitive control explains why Kabuki syndrome shares attention, memory, and impulse struggles with many other conditions.
Neuroscience

How our Brains predict the future

What is the traditional view of how our brain navigates space?
For a long time, scientists thought our brain had a cognitive map, like a GPS, with 'place cells' lighting up to show where we are.
2017 paper reframes hippocampus as a prediction engine, not a GPS — with implications for how Kabuki Syndrome affects learning, memory, and the power of structured routines
Memory

Mouse memories, lost and found again

How can a mouse brain with severe cell loss still learn again?
Researchers induced memory loss in mice. Then they put the mice in a stimulating environment. The memories came back.
Lost memories in mice were recovered by enriching their environment, and also by giving them an over-the-counter supplement, sodium butyrate. What can this teach us about Kabuki Syndrome?
Neuroscience

Flexible Thinking May Come From Retiming, Not Rewiring, the Brain

How does the brain switch between different tasks without rewiring itself each time?
That's a big open question. The brain's wiring stays remarkably stable no matter what you're doing, yet it produces wildly different mental states. This paper proposes that the brain doesn't need to reconfigure — it just retimes its existing signals.
A new framework finds the brain maintains fixed signal flows and switches tasks by adjusting their timing — a mechanism that could reframe how we understand cognitive challenges in Kabuki Syndrome.
Bone Growth

Runaway Oxygen May Explain Kabuki's Short Stature

Kids with Kabuki are often short. Do we know why?
Bones grow longer through a structure called the growth plate, where cartilage cells go through stages — resting, multiplying, and then enlarging — before being replaced by bone. In Kabuki mice, the cartilage cells rush through these stages too fast, enlarging prematurely and then dying off early.
Growth plate cells lacking KMT2D can't handle oxygen properly, triggering a chain reaction that cuts bone growth short — but a targeted antioxidant rescued normal development in the lab, pointing toward a potential treatment for Kabuki syndrome.
Cognition

Kabuki's Distinct Cognitive Fingerprint

Do people with Kabuki have a specific pattern of cognitive strengths and weaknesses?
Yes. This study compared 22 people with molecularly confirmed Kabuki to 22 others with similar age and IQ. Both groups had intellectual disability, but the Kabuki group scored significantly lower on tasks involving visuospatial perception and visual memory. Importantly, their language skills were at least as good as the controls'.
A carefully controlled study reveals that visuospatial weakness — not general intellectual disability — defines the Kabuki thinking profile.
Epigenetics

Enhancers: The Genomic Switches at the Heart of Kabuki

What are enhancers, actually?
Glad you asked! Enhancers are short sections of DNA that act like remote controls for genes. They can turn a gene on or off from far away, ensuring it's active at the right time and place.
A sweeping review reveals how non-coding DNA "enhancers" control brain development, learning, and disease — and why KMT2D and KDM6A sit at the very center of this machinery