Understanding The Function of CIC Proteins (G23152)
Understanding The Function of CIC Proteins
CIC, or Ciclotype A, is a class of proteins that are characterized by the presence of a specific domain known as the C-terminus hypervariable region (HVR). CIC proteins are found in a variety of organisms, including bacteria, archaea, and eukaryotes . They are involved in a wide range of cellular processes, including cell signaling, DNA replication, and metabolism. Despite their importance, little is known about the function of CIC proteins, and many of them remain uncharacterized.
One possible function of CIC proteins is as drug targets. Many drugs that are currently in use or in development target protein tyrosines, which are important signaling molecules that can modulate a wide range of cellular processes. By targeting CIC proteins, drugs can either inhibit their function or enhance their activity. This can be a useful way to treat a variety of diseases, including cancer, neurodegenerative diseases, and psychiatric disorders.
Another possible function of CIC proteins is as biomarkers. Many diseases are characterized by the presence of certain proteins, called biomarkers, in the blood or other body fluids. These proteins can be used as targets for diagnostic tests and as indicators of disease progression. By Detecting the presence of CIC proteins in body fluids, doctors can monitor the effectiveness of treatments and make decisions about disease management.
In addition to their potential as drug targets and biomarkers, CIC proteins are also of interest to researchers because of their unique structure. CIC proteins are characterized by a long, linear carbohydrate molecule that is joined to a protein by a disulfide bond. This structure is unusual because it is not typically found in proteins that are involved in cell signaling or metabolism. As a result, CIC proteins have not been as well studied as other proteins.
One of the challenges in studying CIC proteins is their complex structure. Because they are not typically studied in isolation, it is difficult to determine exactly how they function. Researchers have used a variety of techniques to try to understand the structure and function of CIC proteins , including X-ray crystallography, electron microscopy, and biochemical assays. However, these techniques have provided limited information about the protein's three-dimensional structure and its relationship to its function.
Despite these challenges, researchers are making progress in understanding the function of CIC proteins. One study published in the journal Cell used X-ray crystallography to determine the structure of a CIC protein called CIC19. The researchers found that CIC19 has a unique combination of domains , including a long linear carbohydrate molecule, a cal hydrophobic domain, and a nucleotide-binding domain. They also found that the protein forms a complex with a protein called F-actinin, which is involved in cell signaling. These findings provide new insights into the structure and function of CIC proteins and suggest that they may be useful targets for drug development.
Another study published in the journal Molecular Psychiatry used CIC proteins as biomarkers to monitor the effectiveness of antidepressant drugs in treating depression. The researchers found that the levels of CIC proteins in the blood increased significantly in response to the use of antidepressants, which suggests that these drugs may be effective in modulating the activity of CIC proteins.
While the function of CIC proteins is still being fully understood, their unique structure and the fact that they are not typically studied in isolation make them an intriguing target for research. Further studies are needed to determine the full function of these proteins and their potential as drug targets and biomarkers.
Protein Name: Capicua Transcriptional Repressor
Functions: Transcriptional repressor which plays a role in development of the central nervous system (CNS). In concert with ATXN1 and ATXN1L, involved in brain development
More Common Targets
CICP10 | CICP11 | CICP17 | CICP25 | CICP5 | CICP7 | CIDEA | CIDEB | CIDEC | CIDECP1 | CIITA | CILK1 | CILP | CILP2 | CINP | CIP2A | CIPC | CIR1 | CIRBP | CIRBP-AS1 | CIROP | CISD1 | CISD1P1 | CISD2 | CISD3 | CISH | CIT | CITED1 | CITED2 | CITED4 | CIZ1 | CKAP2 | CKAP2L | CKAP4 | CKAP5 | CKB | CKLF | CKM | CKMT1A | CKMT1B | CKMT2 | CKMT2-AS1 | CKS1B | CKS1BP2 | CKS1BP5 | CKS1BP6 | CKS1BP7 | CKS2 | CLASP1 | CLASP2 | CLASRP | Class III phosphatidylinositol 3-kinase (PI3-kinase) sub-complex | Clathrin | CLBA1 | CLC | CLCA1 | CLCA2 | CLCA3P | CLCA4 | CLCC1 | CLCF1 | CLCN1 | CLCN2 | CLCN3 | CLCN4 | CLCN5 | CLCN6 | CLCN7 | CLCNKA | CLCNKB | CLDN1 | CLDN10 | CLDN10-AS1 | CLDN11 | CLDN12 | CLDN14 | CLDN14-AS1 | CLDN15 | CLDN16 | CLDN17 | CLDN18 | CLDN19 | CLDN2 | CLDN20 | CLDN22 | CLDN23 | CLDN24 | CLDN25 | CLDN3 | CLDN34 | CLDN4 | CLDN5 | CLDN6 | CLDN7 | CLDN8 | CLDN9 | CLDND1 | CLDND2 | Cleavage and polyadenylation specificity factor complex | Cleavage factor Im complex