Target Name: RNU6-716P
NCBI ID: G106479883
Other Name(s): RNA, U6 small nuclear 716, pseudogene

Understanding RNA-U6: Potential Drug Target and Biomarker

RNA-U6 small nuclear 716 (RNA-U6) is a non-coding RNA molecule that has been identified as a potential drug target and biomarker for various diseases, including cancer. Its unique structure and function have made it an attractive target for researchers to study, and recent studies have shed light on its potential implications for human health.

RNA-U6 is a small non-coding RNA molecule that is typically synthesized in the nucleus of the cell. It is characterized by its highly conserved stem-loop structure and the presence of a unique 2'-end that is composed of a partially double -stranded RNA molecule and a single-stranded DNA molecule. RNA-U6 has been shown to play a role in various cellular processes, including gene regulation, DNA replication, and repair, cell signaling, and cell death.

One of the reasons why RNA-U6 has generated so much interest is its potential as a drug target. The unique structure of RNA-U6 has allowed researchers to identify several potential binding sites on the molecule that could be targeted by small molecules. These sites are located in the 2'-end of the molecule, where the double-stranded RNA and DNA components meet.

One of the most promising targets for RNA-U6 is the protein p53, which is a well-known tumor suppressor gene that is often mutated in cancer. Studies have shown that RNA-U6 can interact with p53 and can potentially inhibit its activity, leading to the growth and progression of cancer cells. This interaction between RNA-U6 and p53 highlights the potential of targeting RNA-U6 as a therapy for cancer.

Another potential target for RNA-U6 is the protein NF-kappa-B, which is a transcription factor that regulates various cellular processes, including inflammation, stress, and cell death. Studies have shown that RNA-U6 can interact with NF-kappa-B and can potentially inhibit its activity, leading to the regulation of cellular processes that are associated with disease.

RNA-U6 has also been shown to be involved in the regulation of cellular apoptosis, which is the process by which cells die when they are no longer needed. Studies have shown that RNA-U6 can interact with the protein Bcl-2, which is a protein that plays a role in the regulation of apoptosis. This interaction between RNA-U6 and Bcl-2 highlights the potential of targeting RNA-U6 as a therapy for diseases that are characterized by uncontrolled cell growth, such as cancer.

In addition to its potential as a drug target, RNA-U6 has also been shown to be a potential biomarker for various diseases. Its unique structure and function have allowed researchers to identify various biomarkers that can be used to diagnose and monitor the progression of disease . For example, studies have shown that RNA-U6 levels are often elevated in various types of cancer, and that they can be used as a diagnostic marker for these diseases.

RNA-U6 has also been shown to play a role in the regulation of cellular processes that are associated with aging and age-related diseases. Studies have shown that RNA-U6 can interact with the protein Snail, which is a well-known regulator of the age-related protein p21. This interaction between RNA-U6 and Snail highlights the potential of targeting RNA-U6 as a therapy for age-related diseases.

In conclusion, RNA-U6 small nuclear 716 is a non-coding RNA molecule that has generated a lot of interest due to its unique structure and function. Its potential as a drug target and biomarker for various diseases, including cancer, inflammation, and aging , makes it an attractive target for researchers to study further. Further studies are needed to fully understand the implications of targeting RNA-U6

Protein Name: RNA, U6 Small Nuclear 716, Pseudogene

More Common Targets

RNU6-719P | RNU6-732P | RNU6-735P | RNU6-737P | RNU6-747P | RNU6-76P | RNU6-778P | RNU6-785P | RNU6-791P | RNU6-795P | RNU6-79P | RNU6-808P | RNU6-809P | RNU6-81P | RNU6-826P | RNU6-833P | RNU6-83P | RNU6-850P | RNU6-876P | RNU6-893P | RNU6-900P | RNU6-901P | RNU6-90P | RNU6-919P | RNU6-947P | RNU6-951P | RNU6-968P | RNU6-98P | RNU6-990P | RNU6ATAC | RNU6ATAC18P | RNU6V | RNU7-1 | RNU7-102P | RNU7-11P | RNU7-13P | RNU7-156P | RNU7-16P | RNU7-180P | RNU7-26P | RNU7-2P | RNU7-34P | RNU7-35P | RNU7-45P | RNU7-57P | RNU7-61P | RNU7-72P | RNU7-76P | RNVU1-1 | RNVU1-18 | RNVU1-19 | RNVU1-20 | RNVU1-7 | RNY1 | RNY3 | RNY3P3 | RNY4 | RNY4P10 | RNY4P13 | RNY4P18 | RNY4P19 | RNY4P20 | RNY4P25 | RNY5 | RNY5P5 | RO60 | ROBO1 | ROBO2 | ROBO3 | ROBO4 | ROCK1 | ROCK1P1 | ROCK2 | ROCR | Rod cGMP phosphodiesterase 6 | ROGDI | ROM1 | ROMO1 | ROPN1 | ROPN1B | ROPN1L | ROR1 | ROR1-AS1 | ROR2 | RORA | RORA-AS1 | RORB | RORC | ROS1 | Roundabout homolog receptor | RP1 | RP1L1 | RP2 | RP9 | RP9P | RPA1 | RPA2 | RPA3 | RPA3P1 | RPA4