Riboflavin (VB2) inhibits hepatocellular carcinogenesis by enhancing retinol metabolism and suppressing cell proliferation in Hras12V transgenic mice.
[AIMS] Riboflavin (VB2) is primarily utilized as an adjuvant in cancer therapy.
APA
Song J, Wang N, et al. (2026). Riboflavin (VB2) inhibits hepatocellular carcinogenesis by enhancing retinol metabolism and suppressing cell proliferation in Hras12V transgenic mice.. Frontiers in oncology, 16, 1773897. https://doi.org/10.3389/fonc.2026.1773897
MLA
Song J, et al.. "Riboflavin (VB2) inhibits hepatocellular carcinogenesis by enhancing retinol metabolism and suppressing cell proliferation in Hras12V transgenic mice.." Frontiers in oncology, vol. 16, 2026, pp. 1773897.
PMID
41889417
Abstract
[AIMS] Riboflavin (VB2) is primarily utilized as an adjuvant in cancer therapy. This study aims to investigate the preventive and therapeutic effects of VB2 alone on hepatocellular carcinoma (HCC).
[MAIN METHODS] The preventive and therapeutic efficacy of VB2 against HCC was evaluated using a Hras12V transgenic mouse model of HCC. Initial mechanistic insights were obtained through transcriptome sequencing combined with bioinformatic analyses, and key findings were validated via molecular biology techniques.
[KEY FINDINGS] VB2 administration significantly suppressed hepatic tumorigenesis, as evidenced by reductions in liver tumor burden and improved histology. Bioinformatic analysis revealed that VB2-mediated tumor suppression may involve the regulation of multiple metabolic pathways, including fatty acid and amino acid metabolism. Subsequent molecular validation indicated that VB2 enhanced hepatic retinol metabolism by upregulating key metabolic enzymes. It concurrently inhibited hepatocellular proliferation through p21-mediated G1/S phase arrest and suppressed DNA replication by downregulating the Mcm helicase complex. Additionally, VB2 exhibited inhibitory activity against the progression of established tumors, although this effect was not as significant as its suppression of hepatic tumorigenesis. Safety assessments in wild-type C57BL/6 mice revealed no significant treatment-related toxicity.
[SIGNIFICANCE] To our knowledge, this study is the first to demonstrate that VB2 alone can significantly suppress hepatic tumorigenesis by enhancing retinol metabolism and inhibiting cell proliferation pathways, highlighting its potential as a chemopreventive agent for HCC.
[MAIN METHODS] The preventive and therapeutic efficacy of VB2 against HCC was evaluated using a Hras12V transgenic mouse model of HCC. Initial mechanistic insights were obtained through transcriptome sequencing combined with bioinformatic analyses, and key findings were validated via molecular biology techniques.
[KEY FINDINGS] VB2 administration significantly suppressed hepatic tumorigenesis, as evidenced by reductions in liver tumor burden and improved histology. Bioinformatic analysis revealed that VB2-mediated tumor suppression may involve the regulation of multiple metabolic pathways, including fatty acid and amino acid metabolism. Subsequent molecular validation indicated that VB2 enhanced hepatic retinol metabolism by upregulating key metabolic enzymes. It concurrently inhibited hepatocellular proliferation through p21-mediated G1/S phase arrest and suppressed DNA replication by downregulating the Mcm helicase complex. Additionally, VB2 exhibited inhibitory activity against the progression of established tumors, although this effect was not as significant as its suppression of hepatic tumorigenesis. Safety assessments in wild-type C57BL/6 mice revealed no significant treatment-related toxicity.
[SIGNIFICANCE] To our knowledge, this study is the first to demonstrate that VB2 alone can significantly suppress hepatic tumorigenesis by enhancing retinol metabolism and inhibiting cell proliferation pathways, highlighting its potential as a chemopreventive agent for HCC.
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