Bacteriophage FNU1 negates induced cell growth, migration and chemotherapy resistance in gastrointestinal cancer cells.
[BACKGROUND] is an oncobacterium capable of promoting the growth and chemotherapy resistance of colonised tumours.
APA
Kabwe M, Ayelign B, et al. (2025). Bacteriophage FNU1 negates induced cell growth, migration and chemotherapy resistance in gastrointestinal cancer cells.. Frontiers in cellular and infection microbiology, 15, 1721411. https://doi.org/10.3389/fcimb.2025.1721411
MLA
Kabwe M, et al.. "Bacteriophage FNU1 negates induced cell growth, migration and chemotherapy resistance in gastrointestinal cancer cells.." Frontiers in cellular and infection microbiology, vol. 15, 2025, pp. 1721411.
PMID
41586306
Abstract
[BACKGROUND] is an oncobacterium capable of promoting the growth and chemotherapy resistance of colonised tumours. Although is usually susceptible to a range of antibiotics , these have been associated with worse outcomes when administered with anti-neoplastic chemotherapy. Bacteriophages are viewed as natural alternatives to antibiotics that provide bacterial-specific targeting.
[METHODS] In this study, we have employed an specific bacteriophage, FNU1, to limit the effects of this oncobacteria in colon cancer and gastric cancer cell models.
[RESULTS] We demonstrated that FNU1 was able to negate the induced growth stimulatory effects, migratory ability, autophagy, anti-apoptotic effects and chemotherapy resistance in these cell models.
[CONCLUSION] Treatments with bacteriophage FNU1, therefore, have the potential to augment existing cancer therapy, and further testing in animal models is warranted.
[METHODS] In this study, we have employed an specific bacteriophage, FNU1, to limit the effects of this oncobacteria in colon cancer and gastric cancer cell models.
[RESULTS] We demonstrated that FNU1 was able to negate the induced growth stimulatory effects, migratory ability, autophagy, anti-apoptotic effects and chemotherapy resistance in these cell models.
[CONCLUSION] Treatments with bacteriophage FNU1, therefore, have the potential to augment existing cancer therapy, and further testing in animal models is warranted.
MeSH Terms
Fusobacterium nucleatum; Humans; Bacteriophages; Cell Movement; Cell Line, Tumor; Cell Proliferation; Apoptosis; Gastrointestinal Neoplasms; Autophagy; Drug Resistance, Neoplasm; Fusobacterium Infections; Antineoplastic Agents