Recombinant Human PPM1F/POPX2 protein

補足情報

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

PPM1F also known as POPX2 is a protein phosphatase that belongs to the PP2C family. It functions as a serine/threonine phosphatase and has a molecular mass of approximately 48 kDa. PPM1F is expressed across various tissues including the brain muscle and liver. It plays a role in dephosphorylating proteins involved in numerous cellular processes. By regulating phosphorylation status PPM1F impacts cellular activities such as cell cycle progress and apoptotic pathways.

Biological function summary

This protein phosphatase is instrumental in modulating signaling events related to cytoskeletal dynamics and stress responses. PPM1F does not operate in isolation but rather interacts with other proteins to form complexes that fine-tune its activity and stability. For instance PPM1F associates with components of the actin cytoskeleton and stress-related kinases influencing cellular movement and survival responses. Its ability to deactivate key kinases highlights its biological importance in maintaining cellular function.

Pathways

Recent research places PPM1F in mechanistic contexts related to the MAPK signaling and apoptosis pathways. It interacts closely with proteins like MAPKs and CAMKII to mediate responses to external stimuli influencing cellular proliferation and stress outcomes. The modulation of these pathways by PPM1F highlights its role in facilitating the balance between cell survival and apoptotic signaling. This phosphatase therefore has a significant regulatory function in cellular signaling networks.

Alterations in PPM1F function have correlations with cancer and neurodegenerative diseases. In cancer PPM1F's dephosphorylation roles impact pathways relevant to cell proliferation and apoptosis contributing to tumor progression. Abnormal regulation of PPM1F has also been observed in certain neurodegenerative disorders where its interactions with proteins such as MAPKs affect neuronal survival and distress responses. The link between PPM1F and these conditions highlights its potential as a therapeutic target in disease management.