Target Name: TCIM
NCBI ID: G56892
Other Name(s): human thyroid cancer 1 | hTC-1 | Chromosome 8 open reading frame 4 | TC1 | Transcriptional and immune response regulator | protein C8orf4 | transcriptional and immune response regulator | TC-1 | C8orf4 | thyroid cancer protein 1 | Thyroid cancer protein 1 | TCIM_HUMAN

Targeting Thyroid Cancer with Existing Drugs

Thyroid cancer is a rare and aggressive form of cancer that affects the thyroid gland, a vital organ that plays a critical role in regulating metabolism and growth in the body. Despite being a relatively simple cancer, thyroid cancer can be difficult to diagnose and treat, due to its tendency to spread to other parts of the body.

One potential drug target for thyroid cancer is the protein known as thyroid-stimulating hormone (TSH). TSH is a hormone produced by the thyroid gland that regulates the body's metabolism, and is often used as a treatment for hypothyroidism, a condition in which the thyroid gland does not produce enough thyroid hormones.

Research has shown that TSH can promote the growth and proliferation of thyroid cancer cells, and may also contribute to their metastasis. By targeting the TSH receptor, a protein that is expressed in high levels in thyroid cancer cells, researchers may be able to inhibit the growth of these cells and potentially slow down or even stop their progression.

Another potential drug target for thyroid cancer is the gene known as TP53. TP53 is a tumor suppressor gene that is often mutated or deleted in thyroid cancer, and is thought to play a role in the development and progression of this disease. Researchers are currently working to develop drugs that can target TP53 and prevent it from being mutated or deleted.

In addition to TSH and TP53, there are several other potential drug targets that may be relevant to thyroid cancer, including the oncogene Bcl-2 and the immune system.

The oncogene Bcl-2 is a gene that is often mutated or expressed in high levels in thyroid cancer cells. Bcl-2 has been shown to promote the growth and proliferation of these cells, and may also play a role in their metastasis. Researchers are currently working to develop drugs that can target Bcl-2 and prevent it from promoting the growth and proliferation of thyroid cancer cells.

The immune system is also thought to be involved in the development and progression of thyroid cancer. Many studies have shown that thyroid cancer cells can exploit immune evasion strategies to evade the body's immune system, which is designed to protect the body against foreign substances such as viruses and bacteria. Researchers are currently working to develop drugs that can target immune system molecules and prevent thyroid cancer cells from doing so.

In conclusion, thyroid cancer is a complex and aggressive form of cancer that can be difficult to diagnose and treat. However, by targeting TSH, TP53, Bcl-2, and other potential drug targets, researchers may be able to inhibit the growth and proliferation of thyroid cancer cells and potentially slow down or even stop their progression. Further research is needed to develop more effective treatments for this disease.

Protein Name: Transcriptional And Immune Response Regulator

Functions: Seems to be involved in the regulation of cell growth an differentiation, may play different and opposite roles depending on the tissue or cell type. May enhance the WNT-CTNNB1 pathway by relieving antagonistic activity of CBY1 (PubMed:16424001, PubMed:16730711). Enhances the proliferation of follicular dendritic cells (PubMed:16730711). Plays a role in the mitogen-activated MAPK2/3 signaling pathway, positively regulates G1-to-S-phase transition of the cell cycle (PubMed:18959821). In endothelial cells, enhances key inflammatory mediators and inflammatory response through the modulation of NF-kappaB transcriptional regulatory activity (PubMed:19684084). Involved in the regulation of heat shock response, seems to play a positive feedback with HSF1 to modulate heat-shock downstream gene expression (PubMed:17603013). Plays a role in the regulation of hematopoiesis even if the mechanisms are unknown (By similarity). In cancers such as thyroid or lung cancer, it has been described as promoter of cell proliferation, G1-to-S-phase transition and inhibitor of apoptosis (PubMed:15087392, PubMed:24941347). However, it negatively regulates self-renewal of liver cancer cells via suppresion of NOTCH2 signaling (PubMed:25985737)

More Common Targets

TCIRG1 | TCL1A | TCL1B | TCL6 | TCN1 | TCN2 | TCOF1 | TCP1 | TCP10L | TCP10L2 | TCP10L3 | TCP11 | TCP11L1 | TCP11L2 | TCP11X2 | TCTA | TCTE1 | TCTN1 | TCTN2 | TCTN3 | TDG | TDGF1 | TDGF1P3 | TDGP1 | TDH | TDH-AS1 | TDO2 | TDP1 | TDP2 | TDRD1 | TDRD10 | TDRD12 | TDRD15 | TDRD3 | TDRD5 | TDRD6 | TDRD7 | TDRD9 | TDRG1 | TDRKH | TDRKH-AS1 | TDRP | TEAD1 | TEAD2 | TEAD3 | TEAD4 | TEC | TECPR1 | TECPR2 | TECR | TECRL | TECTA | TECTB | TEDC1 | TEDC2 | TEDC2-AS1 | TEDDM1 | TEF | TEFM | TEK | TEKT1 | TEKT2 | TEKT3 | TEKT4 | TEKT4P1 | TEKT4P2 | TEKT5 | TEKTIP1 | TELO2 | Telomerase holoenzyme complex | TEN1 | TEN1-CDK3 | Teneurin | TENM1 | TENM2 | TENM2-AS1 | TENM3 | TENM3-AS1 | TENM4 | TENT2 | TENT4A | TENT4B | TENT5A | TENT5B | TENT5C | TENT5C-DT | TENT5D | TEP1 | TEPP | TEPSIN | TERB1 | TERB2 | TERC | TERF1 | TERF1P3 | TERF2 | TERF2IP | TERLR1 | TERT | TES