From: Ferroptosis, a new form of cell death: opportunities and challenges in cancer
Category | Drugs/Compounds | Target | Mechanism | Application | Cell lines | Effect | Ref |
---|---|---|---|---|---|---|---|
Chemothe-rapeutic agents | Sulfasalazine | System xc- | Inhibit Cys2 uptake via system xc- | SASP enhanced ferroptosis induced by piperlongumine02 (PL) | BJeLR/HT1080 | Induce | [8] |
HT1080/Calu-1 | [108] | ||||||
HCT116, CX-1, PANC1 | [22] | ||||||
Artesunate | Fe | React with excess intracellular iron to promote the production of ROS | The cisplatin-resistant cancer cells were less sensitive to artesunate-induced ferroptosis | HN3, HN4, HN9 | Induce | [88] | |
Panc-1, COLO357 | [109] | ||||||
BxPC-3, AsPC-1 | [110] | ||||||
TMZ | System xc- | TMZ induces xCT expression via Nrf2 and ATF4 activation pathway | The efficacy of TMZ can be potentiated after combination with erastin and SASP. SASP potentiates chemo-sensitivity of TMZ in xCT knockdown gliomas | F98, U251 | Inhibit | [90] | |
u87-MG, GBM-n6, GBM-n15, a172, T98G | [89] | ||||||
Cisplatin | GSH-GPXs | The depletion of reduced GSH and inactivation of GPXs | Erastin enhances the effect of cisplatin in NSCLCs. | A549, HCT116 | Induce | [19] | |
A2780 | [111] | ||||||
Targeted agents | Sorafenib | System xc- | Inhibit system xc--mediated Cys2 import, leading to glutathione depletion and the iron-dependent accumulation of lipid ROS | DFX remarkably reduced the toxicity of sorafenib in an HCC cell line | HT-1080 | Induce | [65] |
Huh7 | [71] | ||||||
ACHN, PLC/PRF5 | [92] | ||||||
HSC-LX2, HSC | [60] | ||||||
Lapatinib | Fe | Cause ferroptosis through iron transport disruption leading to increased ROS | Knockdown of FPN increased ferroptosis after siramesine and lapatinib treatment | SKBR3, MCF-7, MDA-MB-231 | Induce | [58] | |
MCF-7, ZR-75-1 | [18] | ||||||
Others | Lanperisone | System xc- | Lanperisone-mediated induction of intracellular reactive oxygen species | The remarkable mechanistic similarities of LP as well as erastin underscore the potential of ROS-mediated therapies as a novel strategy to treat K-ras mutant tumors | K-ras-expressing MEFs | Induce | [95] |
Artenimol artemisinin | _ | Increase TFRC gene expression and ROS accumulation | Ferrostatin-1 and the iron chelator deferoxamine led to a significantly reduced cytotoxicity of artenimol | CCRF-CEM | Induce | [11] | |
Salinomycin Ironomycin | Fe | Interacts with the iron | Against CSCs derived from breast human mammary epithelial cells | CSCs | Induce | [65] | |
Bromelain | ACSL-4 | Effectively causes ferroptotic cell death by modulating ACSL-4 levels. | Increased erastin-induced ferroptosis in Kras mutant CRC cells | CT-116, DLD-1 | Induce | [50] | |
Baicalein | LOX | Suppress both lipid peroxidation and iron accumulation; Selectively activate the Keap1-Nrf2 pathway and inhibit 12/15-LOX | – | PANC1, BxPc3 | Inhibit | [11] | |
Cotylenin A (CN-A) | _ | The combined treatment with CN-A and PEITC synergistically increased ROS levels | CN-A plus PEITC inhibited the proliferation of gemcitabine-resistant PANC-1 cells | MIAPaCa-2, PANC-1 | Induce | [11] | |
Vitamin E | LOX | Inhibits 15-lipox-ygenase via reduction of the enzyme’s non-heme iron from its active Fe3+ state to an inactive Fe2+ state | – | STHdhQ7/Q7 | Inhibit | [112] | |
ATRA | LSH | Promotes ferroptosis through decreasing the expression of LSH | – | A549 | Induce | [113] | |
Vitamin C | miR-93 | Significantly increased Nrf2 mRNA and protein expression by decreasing miR-93 | Prevents estrogen-induced breast tumor development | MCF-10A, T47D | Inhibit | [38] |