Publications by authors named "B Philpot"

Background: Angelman syndrome (AS), a severe neurodevelopmental disorder resulting from the loss of the maternal UBE3A gene, is marked by changes in the brain's white matter (WM). The extent of WM abnormalities seems to correlate with the severity of clinical symptoms, but these deficits are still poorly characterized or understood. This study provides the first large-scale measurement of WM volume reduction in children with AS.

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Transcription factor 4 (TCF4) has been implicated in a range of neuropsychiatric disorders, including major depressive disorder, bipolar disorder, and schizophrenia. Mutations or deletions in TCF4 cause Pitt-Hopkins syndrome (PTHS), a rare neurodevelopmental disorder. A detailed understanding of its spatial expression across the developing brain is necessary for comprehending TCF4 biology and, by extension, to develop effective treatments for TCF4-associated disorders.

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Background: Angelman syndrome (AS), a severe neurodevelopmental disorder resulting from the loss of the maternal gene, is marked by changes in the brain's white matter (WM). The extent of WM abnormalities seems to correlate with the severity of clinical symptoms, but these deficits are still not well characterized or understood. This study provides the first large-scale measurement of WM volume reduction in children with AS.

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Article Synopsis
  • Emerging therapies for Angelman syndrome aim to restore UBE3A gene expression in the brain, focusing on its role in neurodevelopment.
  • Recent studies have identified how UBE3A's various isoforms function in neurons and their relationship with other proteins, particularly those in the proteasome.
  • Future research should investigate these isoform-specific roles to uncover new therapeutic targets and clinical biomarkers for Angelman syndrome treatment.
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Article Synopsis
  • Sleep disturbances are common in neurodevelopmental disorders like Dup15q syndrome, which is linked to conditions such as autism and intellectual disability, and are associated with significant disruptions in sleep patterns.
  • The study examines sleep physiology in mice genetically mimicking Dup15q syndrome to validate previous EEG findings of increased beta oscillations, particularly during NREM sleep.
  • Researchers collected EEG/EMG data to analyze sleep metrics across different mouse genotypes (Dup15q mutants and wildtype controls), aiming to understand the connection between genetic factors and sleep quality.
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