Target Name: PGAP6
NCBI ID: G58986
Other Name(s): GPI-PLA2 | TMEM6 | TMEM8A | Transmembrane protein 8 | Transmembrane protein 8A | PGAP6_HUMAN | Post-GPI attachment to proteins factor 6 | Post-GPI attachment to proteins 6 | transmembrane protein 8 (five membrane-spanning domains) | M83 | TMEM8 | five-span transmembrane protein M83 | transmembrane protein 8A | post-GPI attachment to proteins 6 | GPI processing phospholipase A2 | Transmembrane protein 6 | post-glycosylphosphatidylinositol attachment to proteins 6 | Protein M83 | transmembrane protein 6

Understanding PGAP6: A Potential Drug Target and Biomarker

PGAP6 (Protein Glycophosphatase 6) is a protein that is expressed in various tissues throughout the body. It is a key enzyme in the glycophosphatase (GPT) family, which is responsible for breaking down various types of phospholipids, including sphingomyelin and cholesterol. PGAP6 is also known as GPI-PLA2 (Glycophosphatase-associated protein 2), and it is a potential drug target and biomarker.

The GPT family of enzymes is characterized by the presence of a catalytic domain and a N-terminal extension that contains a leucine-rich repeat (LRR) domain. These LRR domains are known to be involved in the formation of the characteristic 尾-strands that are characteristic of the GPT family. PGAP6 is a member of the GPT family and has a similar structure to other members of the family. It consists of a catalytic domain that is responsible for the catalytic activity of the enzyme, as well as a N- terminal extension that contains the LRR domain.

The LRR domain is a structural feature that is unique to the GPT family. It is a short, linear region that is located at the N-terminus of the protein and is composed of multiple amino acids. the 尾-strands that are characteristic of the GPT family. The LRR domain is also responsible for the stability of the enzyme and for its ability to interact with other proteins.

PGAP6 is a protein that is expressed in various tissues throughout the body, including the brain, heart, and liver. It is involved in the breaking down of various types of phospholipids, including sphingomyelin and cholesterol. This is important for the function of the cell, as phospholipids are involved in various cellular processes, including cell signaling and membrane structure. The breakdown of phospholipids by PGAP6 is also important for the regulation of cellular metabolism and the maintenance of cellular homeostasis.

As a potential drug target, PGAP6 is an attractive target for drug developers because of its unique structure and the involvement of the LRR domain in its function. The LRR domain is known to be involved in the formation of the 尾-strands that are characteristic of the GPT family, and it is possible that drugs that target the LRR domain may have unique effects on cellular processes. Additionally, PGAP6 is involved in the breakdown of various types of phospholipids, which makes it an attractive target for drugs that are designed to modulate cellular signaling processes.

In addition to its potential as a drug target, PGAP6 is also a potential biomarker. The breakdown of phospholipids by PGAP6 is a critical process that is involved in the regulation of cellular metabolism and homeostasis. Therefore, changes in the levels of PGAP6 in various tissues , such as those derived from cancer cells, may be an indication of the presence of disease. Additionally, the levels of PGAP6 may be affected by various factors, including nutrient availability, cellular stress, and cellular signaling processes. Therefore, PGAP6 may be a useful biomarker for the diagnosis and monitoring of various diseases.

In conclusion, PGAP6 is a protein that is expressed in various tissues throughout the body and is involved in the breakdown of various types of phospholipids. As a potential drug target and biomarker, PGAP6 is an attractive target for drug developers who are interested in modulating cellular signaling processes and the regulation of cellular homeostasis. Further research is needed to fully understand the role of PGAP6 in cellular processes and its potential as a drug target and biomarker.

Protein Name: Post-GPI Attachment To Proteins 6

Functions: Involved in the lipid remodeling steps of GPI-anchor maturation. Lipid remodeling steps consist in the generation of 2 saturated fatty chains at the sn-2 position of GPI-anchor proteins (GPI-AP). Has phospholipase A2 activity that removes an acyl-chain at the sn-2 position of GPI-anchors during the remodeling of GPI. Required for the shedding of the GPI-AP TDGF1, but not CFC1, at the cell surface. Shedding of TDGF1 modulates Nodal signaling by allowing soluble TDGF1 to act as a Nodal coreceptor on other cells (PubMed:27881714). Also indirectly involved in the translocation of RAC1 from the cytosol to the plasma membrane by maintaining the steady state amount of CAV1-enriched plasma membrane subdomains, stabilizing RAC1 at the plasma membrane (PubMed:27835684). In contrast to myomaker (TMEM8C), has no fusogenic activity (PubMed:26858401)

More Common Targets

PGBD1 | PGBD2 | PGBD3 | PGBD4 | PGBD4P3 | PGBD4P4 | PGBD5 | PGBP | PGC | PGD | PGF | PGGHG | PGGT1B | PGK1 | PGK1P2 | PGK2 | PGLS | PGLYRP1 | PGLYRP2 | PGLYRP3 | PGLYRP4 | PGM1 | PGM2 | PGM2L1 | PGM3 | PGM5 | PGM5-AS1 | PGM5P2 | PGM5P4 | PGM5P4-AS1 | PGP | PGPEP1 | PGPEP1L | PGR | PGR-AS1 | PGRMC1 | PGRMC2 | PGS1 | PHACTR1 | PHACTR2 | PHACTR3 | PHACTR3-AS1 | PHACTR4 | PHAF1 | PHAX | PHB1 | PHB1P1 | PHB1P19 | PHB1P3 | PHB1P8 | PHB1P9 | PHB2 | PHC1 | PHC1P1 | PHC2 | PHC2-AS1 | PHC3 | Phenylalanyl-tRNA synthetase | PHETA1 | PHETA2 | PHEX | PHEX-AS1 | PHF1 | PHF10 | PHF11 | PHF12 | PHF13 | PHF14 | PHF19 | PHF2 | PHF2-ARID5B complex | PHF20 | PHF20L1 | PHF21A | PHF21B | PHF23 | PHF24 | PHF2P1 | PHF2P2 | PHF3 | PHF5A | PHF6 | PHF7 | PHF8 | PHGDH | PHGR1 | PHIP | PHKA1 | PHKA1-AS1 | PHKA2 | PHKA2-AS1 | PHKB | PHKG1 | PHKG2 | PHLDA1 | PHLDA2 | PHLDA3 | PHLDB1 | PHLDB2 | PHLDB3