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Sex-based prenatal brain differences found

A new study by Uppsala University researchers Elena Jazin and Björn Reinius found that genetic expression in cerebral cortices exhibits sex-based differences, which are thought to be associated with later divergences in brain development. The study suggests that genes on the Y chromosome play a crucial role in these differences.

SourceUppsala University·JournalMolecular Psychiatry·DateOct 23, 2009

APP -- Good, bad or both?

Research at Georgetown University Medical Center found that APP plays a critical role in brain development, connection of synapses, and dendritic spine development. Overproducing APP can lead to Abeta plaques and cognitive decline, highlighting the importance of maintaining balance in APP protein expression.

Active genes discovered in the developing mammal brain

A study at Penn State has identified over 16,000 active genes in mouse brains during embryonic development and post-natal stages. These genes are linked to cognitive and sensory abilities and may hold the key to developing treatments for neurological disorders such as autism and Alzheimer's disease.

SourcePenn State·JournalProceedings of the National Academy of Sciences·DateJul 13, 2009

Babies & Robots: Infant power mobility on display

Researchers at the University of Delaware have developed miniature power chairs that infants can control, enabling children with cerebral palsy and spina bifida to explore their surroundings. This breakthrough technology has the potential to significantly impact brain development and learning abilities in these children.

Wellcome brain insights

Dr Jacquelyn Bond is studying the ASPM protein to understand its role in brain development and its connection to microcephaly. The research aims to uncover the pathways involved in brain development and determine how aberrations in these pathways lead to microcephaly.

A tale of mice and men and how brains develop

A new study has identified a crucial connection between genes involved in brain development and human diseases such as epilepsy, mental retardation, and schizophrenia. The findings have significant implications for understanding the causes of these conditions and potentially leading to new treatments.

SourceBaylor College of Medicine·JournalNature Genetics·DateOct 26, 2003