International Journal of Molecular Sciences · 2020 · 36 citations · 41 references
MedicineCancer BiologyOncologyApoptosisCancer PharmacologyMolecular OncologyCancer NanomedicineGraphene NanomaterialsMitochondrial ToxicityMolecular Mechanisms Of ToxicityNanotoxicologyReactive Oxygen SpeciesAnticancer ActivityBiocompatible NanomaterialsCancer NanotherapyCellular Membrane DamageGrapheneGraphene OxideNanoparticle CytotoxicityOxidative Stress In Cancer
Clinically, there is an urgent need to identify new therapeutic strategies for selectively treating cancer cells. One of the directions in this research is the development of biocompatible therapeutics that selectively target cancer cells. Here, we show that novel aminated graphene oxide (haGO-NH2) nanoparticles demonstrate increased toxicity towards human hepatocellular cancer cells compared to pristine graphene oxide(GO). The applied novel strategy for amination leads to a decrease in the size of haGO-NH2 and their zeta potential, thus, assuring easier penetration through the cell membrane. After characterization of the biological activities of pristine and aminated GO, we have demonstrated strong cytotoxicity of haGO-NH2 toward hepatic cancer cells—HepG2 cell line, in a dose-dependent manner. We have presented evidence that the cytotoxic effects of haGO-NH2 on hepatic cancer cells were due to cell membrane damage, mitochondrial dysfunction and increased reactive oxygen species (ROS) production. Intrinsically, our current study provides new rationale for exploiting aminated graphene oxide as an anticancer therapeutic.
41
Sorafenib in Advanced Hepatocellular Carcinoma
Josep M. Llovet, Sergio Ricci, Vincenzo Mazzaferro et al. · New England Journal of Medicine · 2008 · 13K citations · Full text
Medicine, Oncology, Pharmacology +12
Sorafenib in Advanced Hepatocellular Carcinoma
재연 정 · 2008 · 5.6K citations
Medicine, Oncology, Pharmacology +12