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Aspartame drives the continuous progression from MASLD to HCC.

Created on 29 Jun 2026

Authors

Xusheng Zhang, Rong Tan, Yongxin Ma, Jian Fei Zhang, Qi Wang, Bendong Chen

Published in

Discover oncology. Jun 29, 2026. Epub Jun 29, 2026.

Abstract

Aspartame (APM), a widely used sweetener, has been linked to cancers, yet its molecular impact on metabolic dysfunction-associated steatotic liver disease (MASLD) and subsequent hepatocellular carcinoma (HCC) remains undefined. We integrated network toxicology, bulk RNA-seq and docking to map the mechanism.
APM targets were retrieved from ChEMBL, STITCH and SwissTargetPrediction. MASLD and HCC RNA-seq data from GEO were used to call differentially expressed genes(DEGs). WGCNA identified disease modules and hub genes. Intersection of APM targets, DEGs and hubs defined core genes for GO/KEGG and PPI analyses. CytoHubba (DMNC, EPC, Degree, MCC), LASSO, RF and SVM-RFE shortlisted key genes, and docking verified APM binding.
Twelve genes intersected across APM, MASLD and HCC datasets. Enrichment supports a "dual-track" mechanism: APM-MASLD targets suppress bile-acid export, impair lipid clearance and fuel steatosis; MASLD-HCC targets jointly activate TNF/IL-17 and chemical-carcinogenesis pathways, indicating chronic inflammation bridges steatosis to cancer; APM-HCC targets map to p53, nuclear-receptor and xenobiotic-response networks, revealing APM hijacks receptor signalling to impose proliferative stress that, coupled with p53 loss, drives clonal selection. Machine-learning nominated EGR1 and PTGS2 as top diagnostic genes (AUC > 0.7); docking showed high-affinity APM binding (-7.1 and-7.9 kcal mol⁻¹, respectively), identifying them as key relays in APM-induced HCC.
EGR1 and PTGS2 are central nodes through which APM precipitates MASLD and accelerates progression to HCC. We propose a "dual-track" oncogenic paradigm: Track A follows the canonical MASLD-HCC axis (bile-acid retention - lipid deposition - TNF/IL-17-driven ROS-mutational amplification), whereas Track B allows APM, via PTGS2/EGR1, to usurp gate-keeper proteins governing proliferation and apoptosis, initiating malignant programming before overt steatosis develops. These findings provide mechanistic insight into APM-related hepatocarcinogenesis, nominate tractable diagnostic biomarkers and therapeutic targets, and inform future re-evaluation of APM carcinogenicity classifications.

PMID:
42371361
Bibliographic data and abstract were imported from PubMed on 29 Jun 2026.

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