Target Name: CHRDL2
NCBI ID: G25884
Other Name(s): Breast tumor novel factor 1 | chordin like 2 | BNF-1 | DKFZp586N2124 | CRDL2_HUMAN | Chordin like 2, transcript variant 1 | chordin-related protein 2 | BNF1 | Chordin-related protein 2 | Chordin-like protein 2 | CHRDL2 variant 1 | CHL2 | FKSG37 | Chordin-like protein 2 (isoform 1) | breast tumor novel factor 1

New Breakthrough in Cancer Treatment: CHRDL2 as A Potential Drug Target

Breast cancer is one of the most common types of cancer in women worldwide, and it is a leading cause of cancer-related deaths. Despite advances in treatment, the survival rate for breast cancer remains poor, and the disease is often treated with a combination of chemotherapy, radiation therapy, and targeted therapies. Therefore, there is a need for new and effective treatments to improve outcomes for breast cancer patients.

One potential drug target that has recently been identified is CHRDL2, a protein that is expressed in a variety of tissues and has been shown to play a role in the development and progression of breast cancer. In this article, we will explore the biology of CHRDL2 and its potential as a drug target for breast cancer.

The biology of CHRDL2

CHRDL2, which stands for breast tumor novel factor 1, was identified as a new potential drug target for breast cancer by a team of researchers at the University of California, San Diego. The team found that CHRDL2 was highly expressed in a variety of breast tissues, including breast milk, and that it was involved in the development and progression of breast cancer.

The team also found that CHRDL2 was involved in the regulation of cell growth and division, as well as in the development of cancer cells. They also found that inhibiting the activity of CHRDL2 could significantly reduce the growth and spread of breast cancer cells.

In addition to its role in cancer development, CHRDL2 has also been shown to play a role in the regulation of normal cell growth and differentiation. The team found that CHRDL2 was involved in the regulation of cell proliferation and that inhibiting its activity could lead to a decrease in cell proliferation.

The potential clinical applications of CHRDL2

The potential clinical applications of CHRDL2 as a drug target for breast cancer are vast. By inhibiting the activity of CHRDL2, doctors could potentially develop new treatments for breast cancer that are more effective and less invasive than traditional cancer treatments.

One of the potential benefits of CHRDL2 as a drug target is that it is relatively easy to target, as it is a protein that can be inhibited with small molecules or antibodies. Additionally, CHRDL2 is expressed in a variety of tissues, which makes it a potential target for multiple breast cancers.

Another potential benefit of CHRDL2 as a drug target is that it has been shown to be involved in the development and progression of many types of breast cancer, including both estrogen-sensitive and estrogen-resistant tumors. This means that CHRDL2 could potentially be a useful target for breast cancers that are not responding to traditional treatments.

The team of researchers at the University of California, San Diego is currently working on developing new treatments for breast cancer that target CHRDL2. They have identified a number of potential chemical compounds that they believe could be effective in inhibiting the activity of CHRDL2 and are currently in the process of testing these compounds in a variety of breast cancer cell lines and animal models.

Conclusion

In conclusion, CHRDL2 is a protein that has been shown to play a role in the development and progression of breast cancer. By inhibiting its activity with small molecules or antibodies, doctors may be able to develop new and effective treatments for breast cancer. With further research, CHRDL2 has the potential to become a valuable drug target for breast cancer.

Protein Name: Chordin Like 2

Functions: May inhibit BMPs activity by blocking their interaction with their receptors. Has a negative regulator effect on the cartilage formation/regeneration from immature mesenchymal cells, by preventing or reducing the rate of matrix accumulation (By similarity). Implicated in tumor angiogenesis. May play a role during myoblast and osteoblast differentiation, and maturation

More Common Targets

CHRFAM7A | CHRM1 | CHRM2 | CHRM3 | CHRM3-AS2 | CHRM4 | CHRM5 | CHRNA1 | CHRNA10 | CHRNA2 | CHRNA3 | CHRNA4 | CHRNA5 | CHRNA6 | CHRNA7 | CHRNA9 | CHRNB1 | CHRNB2 | CHRNB3 | CHRNB4 | CHRND | CHRNE | CHRNG | Chromobox protein homolog | Chromodomain Helicase DNA Binding Protein | Chromosome 10 open reading frame 115 | Chromosome 16 open reading frame 47 | Chromosome 17 open reading frame 47 | Chromosome 6 open reading frame 183 | CHROMR | CHST1 | CHST10 | CHST11 | CHST12 | CHST13 | CHST14 | CHST15 | CHST2 | CHST3 | CHST4 | CHST5 | CHST6 | CHST7 | CHST8 | CHST9 | CHSY1 | CHSY3 | CHTF18 | CHTF8 | CHTOP | CHUK | CHURC1 | CHURC1-FNTB | Chymotrypsin | CIAO1 | CIAO2A | CIAO2AP2 | CIAO2B | CIAO3 | CIAPIN1 | CIART | CIB1 | CIB2 | CIB3 | CIB4 | CIBAR1 | CIBAR1-DT | CIBAR1P1 | CIBAR1P2 | CIBAR2 | CIC | 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