Acute myeloid leukemia |
Erastin |
Cytarabine and doxorubicin /adriamycin |
GPX4 |
JNK and p38 synergistically promote erastin‐induced ferroptosis |
[140]
|
Breast cancer |
Albiziabioside A |
Dichloroacetate |
GPX4 |
AlbA‐DCA can inhibit GPX4 and eliminate M2 macrophages to promote antitumor immunity |
[156]
|
Breast cancer |
Ferroptosis inducers |
Oxygen‐boosted PDT |
– |
PDT promotes the accumulation of lymphocytes at the tumor site and stimulates the secretion of IFN‐γ |
[158]
|
Glioblastomas |
Sulfasalazine |
Gamma knife radiosurgery |
System Xc‐ |
SSZ inhibits the uptake of cystine and therefore reduces the level of GSH, thus increasing the intracellular ROS |
[149]
|
Head and neck cancer |
Trigonelline |
Artesunate |
NRF2 |
NRF2 inhibitor trigonelline can induce lipid peroxide accumulation |
[134]
|
Lung cancer |
RSL3 |
Cisplatin |
GPX4 |
RSL3 enhances the therapeutic effect of cisplatin |
[123]
|
Melanoma |
TGF‐β inhibitor |
PD‐1 antibody |
ROS |
PD‐1 antibody and TGF‐β inhibitor cooperatively polarize M2‐TAMs into M1‐TAMs and promote the Fenton reaction with Fe ions discharged from magnetic nanoclusters |
[155]
|
NSCLC |
Erastin |
Cisplatin |
GSH‐GPX4 |
Cisplatin can deplete the GSH and inactivate the GPX4 together |
[122]
|
NSCLC |
Erastin |
Cisplatin |
ROS |
SAHA and erastin, the inducers of ROS‐mediated cell death, strongly enhanced the effect of cisplatin in WT EGFR cells |
[126]
|
Ovarian cancer |
Erastin |
Cisplatin |
System Xc‐ |
Erastin can inhibit system Xc‐ and potentiate the cytotoxic effects of cisplatin to eradicate tumor cells |
[125]
|
PDAC |
Erastin |
Gemcitabine |
System Xc‐ |
Both SLC7A11‐KO cell lines exhibit amino acid stress with induction of ATF4 and cell death |
[124]
|
PDAC |
Erastin |
Cisplatin |
System Xc‐ |
Both SLC7A11‐KO cell lines exhibit amino acid stress with induction of ATF4 and cell death |
[124]
|
Sarcoma |
Anti–PD‐L1/Anti‐ CTLA‐4 mAb |
Ionizing radiation |
System Xc‐ |
Radiation therapy and interferon synergistically reduce the expression level of SLC7A11 |
[151]
|