Recombinant Human DGCR6 protein (His tag N-Terminus)

Supplementary information

This supplementary information is collated from multiple sources and compiled automatically.

DGCR6 also known as DiGeorge syndrome critical region gene 6 is a protein involved in several cellular activities. This protein is located on chromosome 22 and possesses a molecular weight of approximately 20 kDa. Researchers have noted its expression in various tissues including the brain heart and skeletal muscle. The precise role of DGCR6 in cellular mechanics remains an active area of study. However scientists correlate its activities with cellular structure stabilization and possible involvement in neural development.

Biological function summary

Scientists consider DGCR6 as an integral part of cellular organization and development. It may associate with other cellular components in complex structures contributing to the maintenance of normal cell functions. In particular its expression in neuronal tissues suggests a role in neurogenesis. Studies reveal that DGCR6 might interact with proteins involved in intracellular trafficking and signaling therefore influencing cellular differentiation processes.

Pathways

Research indicates that DGCR6 may play a role in critical signaling pathways such as the Wnt signaling pathway and the T-cell receptor signaling pathway. In the Wnt pathway it potentially interacts with proteins like beta-catenin which is essential for the regulation of cell fate decisions. In T-cell receptor signaling DGCR6 may relate to proteins that modulate immune responses. Understanding these interactions can provide insight into how DGCR6 functions within these pathways.

DGCR6 has been linked to DiGeorge syndrome and schizophrenia. In DiGeorge syndrome abnormality in DGCR6 can result in developmental anomalies partly due to its interactions with other proteins in the microdeletion region of chromosome 22. In the context of schizophrenia researchers suspect that DGCR6 influences neural activities and may impact neurotransmitter systems although its exact role requires further exploration. Connections with proteins such as COMT (catechol-O-methyltransferase) could explain certain phenotypic manifestations noted in these disorders.