Table 1.
Effect of pharmacological modulators of ROS on melanoma cell fate.
20Modulator | Model | ROS effect | Techniques | Cell fate | Overall conclusion | Ref |
---|---|---|---|---|---|---|
Nexrutine | Melanoma cells & melanocytes |
Induction | H2DCFDA, mitoSOX; Oxidative stress markers |
Apoptosis | ROS, PI3K/mTOR inhibition & apoptosis induction |
[20] |
Benzofuroxan N-Br & N-I derivatives |
B16F10-Nex2 cells; syngeneic mouse model |
Induction | Dihydroethidium; fluorescent microscopy; |
Apoptosis | Mitochondrial ROS & reduced tumor burden |
[29] |
Luteolin | Melanoma cells | Induction | H2DCFDA | Apoptosis | ER stress/ROS with apoptosis | [30] |
Isoliquiritigenin | B16F10 cells | Induction | H2DCFDA | Apoptosis | Mitochondrial ROS & apoptosis | [31] |
DDSD | B16F10 cells & syngeneic mouse model |
Induction | H2DCFDA | Apoptosis | Mitochondrial apoptosis & reduced tumor burden |
[32] |
4-DACL | Melanoma cells, spheroids, melanocytes |
Induction | CellROX Green & Deep Red Reagent |
Apoptosis | Mitochondrial ROS, inhibition of proliferation and cell cycle |
[33] |
4-DACL: (±)-4-deoxyaustrocortilutein; DDSD: (5(R), 19-diacetoxy-15,18(R and S), dihydro spata-13, 16(E)-diene