Telmisartan anti-cancer activities mechanism through targeting N-cadherin by mimicking ADH-1 function.
Marjan KhorsandSahar KhajehMahboobeh EslamiNavid NezafatYounes GhasemiVahid RazbanZohreh Mostafavi-PourPublished in: Journal of cellular and molecular medicine (2022)
This study aimed to investigate if Telmisartan as a novel N-cadherin antagonist, can overcome cell migration of cancer cells. We investigated the mechanism and influence of Docetaxel and Telmisartan (as an analogous to ADH-1, which is a well-known N-cadherin antagonist) on cancer cells. The effect of ADH-1 and Telmisartan on cell attachment in PC3, DU145, MDA-MB-468 cell lines using recombinant human N-cadherin was studied. Cell viability assay was performed to examine the anti-proliferative effects of Telmisartan, ADH-1 and Docetaxel. Migration was examined via wound healing assay, and apoptosis was determined by flow cytometry. The expression of AKT-1 as a downstream gene of N-cadherin signalling pathway was assayed by real-time PCR. Treatment of PC3, MDA-MB-468 and DU145 cells with Telmisartan (0.1 µM) and ADH-1 (40 µM) resulted in 50%, 58% and approximately 20% reduction in cell attachment to N-cadherin coated plate respectively. It shows reduction of cell attachment in PC3 and MDA-MB-468 cell lines appeared to be more sensitive than that of DU145 cells to the Telmisartan and ADH-1 treatments. Telmisartan (0.1 µM) and Docetaxel (0.01 nM) significantly reduced cell migration in PC3 and MDA-MB-468 cell lines compared with the control group. Using Real-time PCR, we found that Telmisartan, Docetaxel and ADH-1 had significant influence on the AKT-1 mRNA level. The results of the current study for the first time suggest that, Telmisartan, exerts anti-proliferation and anti-migration effects by targeting antagonistically N-cadherin. Also, these data suggest that Telmisartan as a less expensive alternative to ADH-1 could potentiate Docetaxel anticancer effects.
Keyphrases
- cell migration
- cell cycle arrest
- real time pcr
- induced apoptosis
- signaling pathway
- single cell
- flow cytometry
- breast cancer cells
- pi k akt
- cell adhesion
- cell proliferation
- cell therapy
- locally advanced
- recombinant human
- poor prognosis
- squamous cell carcinoma
- endoplasmic reticulum stress
- oxidative stress
- gene expression
- high throughput
- machine learning
- dna methylation
- photodynamic therapy
- genome wide
- radiation therapy
- big data
- cancer therapy
- atomic force microscopy
- long non coding rna