Ho Jin Han , Junyeol Han , Yerim Choi , Gwi-Ja Hwang , Sumin Kim , In-Ja Ryoo , Bo Yeon Kim , Nak-Kyun Soung
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引用次数: 0
Abstract
Colorectal cancer is a highly metastatic disease and the second leading cause of cancer-related death worldwide. Despite the use of various treatment strategies, including chemotherapy and targeted therapy, challenges such as toxicity, drug resistance, and poor response indicate the critical need for new therapeutic agents.
Microtubule target agents are one of the major treatment options for chemotherapy in various cancer patients. However, most of these agents are substrates of the MDR1 protein, which leads to the development of multidrug resistance, significantly limiting their effectiveness. Therefore, the development of new drugs is being actively pursued.
In this study, we synthesized a novel compound, No.07, which demonstrates significant anti-cancer activity in 3D spheroid models, patient-derived colon cancer organoid models, and mice xenograft models. No.07 directly binds to tubulin dimers, interfering with microtubule polymerization and thereby disrupting tubulin dynamics, ultimately inducing mitotic arrest. Furthermore, No.07 increases mitochondria reactive oxygen species level, leading to the inactivation of the RAF-MEK-ERK signaling cascade, which consequently inhibits metastasis. Notably, Swiss ADME predictions suggest that No.07 is not a substrate of MDR1 and can cross the blood-brain barrier, unlike other microtubule target agents that are limited by MDR1-mediated drug resistance and poor brain penetration. Additionally, experiments using multidrug-resistant cell lines confirmed that No.07 effectively overcomes multidrug resistance, providing a significant improvement over traditionally used chemotherapy agents. In conclusion, No.07 has the potential to address the limitations of existing treatments as a novel therapeutic option.
期刊介绍:
Life Sciences is an international journal publishing articles that emphasize the molecular, cellular, and functional basis of therapy. The journal emphasizes the understanding of mechanism that is relevant to all aspects of human disease and translation to patients. All articles are rigorously reviewed.
The Journal favors publication of full-length papers where modern scientific technologies are used to explain molecular, cellular and physiological mechanisms. Articles that merely report observations are rarely accepted. Recommendations from the Declaration of Helsinki or NIH guidelines for care and use of laboratory animals must be adhered to. Articles should be written at a level accessible to readers who are non-specialists in the topic of the article themselves, but who are interested in the research. The Journal welcomes reviews on topics of wide interest to investigators in the life sciences. We particularly encourage submission of brief, focused reviews containing high-quality artwork and require the use of mechanistic summary diagrams.