Target Name: CIITA
NCBI ID: G4261
Review Report on CIITA Target / Biomarker Content of Review Report on CIITA Target / Biomarker
CIITA
Other Name(s): MHC class II transactivator (isoform 2) | CIITA variant 2 | MHC class II transactivator type III | MHC class II transactivator (isoform 1) | MHC class II transactivator | nucleotide-binding oligomerization domain, leucine rich repeat and acid domain containing | Class II major histocompatibility complex transactivator, transcript variant 2 | CIITA variant 1 | Class II Transactivator | CIITAIV | CIITA IV | NLRA | C2TA_HUMAN | MHC2TA | MHC class II transactivator isoform X1 | NLR family, acid domain containing | C2TA | class II major histocompatibility complex transactivator | MHC class II transactivator type I | Class II major histocompatibility complex transactivator, transcript variant 1 | Nucleotide-binding oligomerization domain, leucine rich repeat and acid domain containing

CITP: A Potential Drug Target for P53-Related Diseases

CITP (cytosine-inositol-thiocyanine) is a DNA-binding protein that plays a crucial role in the regulation of gene expression and DNA replication. It is a key component of the molecular machinery that ensures the integrity of the double helix and facilitates the transfer of genetic information from the mother to the offspring. In addition to its role in gene regulation, CITP is also a potent protein that can be used as a drug target or biomarker.

In this article, we will explore the biology and applications of CITP, with a focus on its potential as a drug target. We will discuss the structure and function of CITP, its role in gene regulation, and its potential as a drug target.

Structure and Function

CITP is a 26 kDa protein that is expressed in a variety of tissues, including muscle, liver, and brain. It is composed of a 166 amino acid residue protein tail and a 96 amino acid residue N-terminus. The protein has a characteristic Rossmann-fold structure that is involved in its DNA-binding properties.

CITP is a DNA-binding protein that can form a stable complex with double-stranded DNA. This complex is formed through a series of interactions between CITP's amino acid residues and the negatively charged phosphate groups on the DNA. The CITP-DNA complex has been shown to have a stable association constant (Kd) of 1.8 nM, which suggests that it has a high affinity for DNA.

In addition to its DNA-binding properties, CITP has also been shown to play a role in the regulation of gene expression. It has been shown to interact with the transcription factor, p53, and to play a role in the regulation of DNA replication. CITP has also been shown to be involved in the regulation of cell cycle progression, and has been shown to interact with the protein, p21 ( transforming growth factor-beta 1).

CITP has also been shown to have potential as a drug target. One of its potential targets is the protein, p53, which is a transcription factor that plays a critical role in the regulation of gene expression and DNA replication. CITP has been shown to interact with p53 and to regulate its activity. This suggests that CITP may be a useful drug target for the treatment of p53-related diseases, such as cancer.

Drug Target Potential

The potential use of CITP as a drug target is based on its ability to interact with p53 and to regulate its activity. CITP has been shown to inhibit the activity of p53 in a variety of cell types, and to enhance its own activity. This suggests that CITP may be an effective inhibitor of p53 activity, which could be useful for the treatment of p53-related diseases.

One of the challenges in the development of CITP as a drug target is its expression and stability in the body. CITP is a cytosine-inositol-thiocyanine protein, which is highly susceptible to degradation due to its hydrophobic nature. In addition, CITP is also a protein that is expressed in a variety of tissues, which can make it difficult to target specifically.

To address these challenges, researchers have developed several strategies to increase the stability and expression of CITP. One strategy is to genetically modify CITP to increase its stability, by introducing amino acid mutations that are expected to improve its stability in the body. Another strategy is to use genetic modification to increase the expression of CITP, by introducing genes that encode for the protein in the body.

Another approach to increasing the stability and expression of CITP is to use it in combination with drugs that are known to be effective in targeting p53. For example, one study found that the combination of CITP and the drug, p21 (transforming growth factor-beta 1), was effective in inhibiting the activity of

Protein Name: Class II Major Histocompatibility Complex Transactivator

Functions: Essential for transcriptional activity of the HLA class II promoter; activation is via the proximal promoter. No DNA binding of in vitro translated CIITA was detected. May act in a coactivator-like fashion through protein-protein interactions by contacting factors binding to the proximal MHC class II promoter, to elements of the transcription machinery, or both. Alternatively it may activate HLA class II transcription by modifying proteins that bind to the MHC class II promoter. Also mediates enhanced MHC class I transcription; the promoter element requirements for CIITA-mediated transcription are distinct from those of constitutive MHC class I transcription, and CIITA can functionally replace TAF1 at these genes. Activates CD74 transcription (PubMed:32855215). Exhibits intrinsic GTP-stimulated acetyltransferase activity. Exhibits serine/threonine protein kinase activity: can phosphorylate the TFIID component TAF7, the RAP74 subunit of the general transcription factor TFIIF, histone H2B at 'Ser-37' and other histones (in vitro). Has antiviral activity against Ebola virus and coronaviruses, including SARS-CoV-2. Induces resistance by up-regulation of the p41 isoform of CD74, which blocks cathepsin-mediated cleavage of viral glycoproteins, thereby preventing viral fusion (PubMed:32855215)

The "CIITA Target / Biomarker Review Report" is a customizable review of hundreds up to thousends of related scientific research literature by AI technology, covering specific information about CIITA comprehensively, including but not limited to:
•   general information;
•   protein structure and compound binding;
•   protein biological mechanisms;
•   its importance;
•   the target screening and validation;
•   expression level;
•   disease relevance;
•   drug resistance;
•   related combination drugs;
•   pharmacochemistry experiments;
•   related patent analysis;
•   advantages and risks of development, etc.
The report is helpful for project application, drug molecule design, research progress updates, publication of research papers, patent applications, etc. If you are interested to get a full version of this report, please feel free to contact us at BD@silexon.ai

More Common Targets

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 | Cleavage Stimulation Factor | CLEC10A | CLEC11A | CLEC12A | CLEC12A-AS1 | CLEC12B | CLEC14A | CLEC16A | CLEC17A | CLEC18A | CLEC18B