Review Article

Mitochondrial Dysfunction Pathway Alterations Offer Potential Biomarkers and Therapeutic Targets for Ovarian Cancer

Table 1

Some drugs targeting mitochondrial dysfunction as a therapeutic strategy for ovarian cancer treatment.

Mitochondrial dysfunction pathwayDrugsFunctional mechanismCell modelReferences

Energy metabolismBcl-2 inhibitor ABT737Disrupting Bcl2-dependent OXPHOSSKOV3 (cisplatin-sensitive) and SKOV3/DDP (cisplatin-resistant)[114]
FDA-approved antibioticsInhibit mitochondrial OXPHOS and/or biogenesisOvarian cancer stem cells[115]
IMT1BTargeting the human mitochondrial RNA polymerase and affecting the biogenesis of OXPHOSA2780 cells[116]
IvermectinTargeted lncRNA-EIF4A3-mRNA pathwaysA2780 and TOV-21G cells[117]
Metabolites from invasive Caulerpa speciesSelectively inhibiting respiratory complex II activityOV2008 and C13 cells[118]
Metformin-loaded PLGA-PEG nanoparticlesOXPHOSSKOV-3 ovarian cells[119]
TigecyclineInhibiting translation by mitochondrial ribosomeSW626 and SKOV-3 cells[120]

Oxidative stressAmphiphilic doxorubicinTumor- and mitochondria-selective deliveries of the anticancer drugThe OVCAR-8 human ovarian carcinoma cell line and its doxorubicin-resistant derivative NCI/ADR-RES cell line[121]
Induces an increased level of ROS generationPA-1 cells[122]
Elesclomol sodiumAccumulation of ROSRMG1 and OVCA432 cells[123]
Epoxycytochalasin HIncreased ROS level in cellsA2780 cells[124]
EupatilinReactive oxygen species (ROS) generation, calcium influxOV90 and ES2 cells[125]
Extract of Persian Gulf Marine Mollusk (Turbo Coronatus)ROS-mediated mitochondrial targetingHuman epithelial ovarian cancer cells[126]
IsolinderalactoneMitochondrial superoxide-mediated pathwaysSKOV-3 and OVCAR-3 cells[127]
Multifunctional tumor-targeted nanosized ultrasound contrast agentsConsumed GSH and enhanced reactive ROS levelA2780 and SKOV-3 cells[128]
Olive leaf extractIncreasing ROS and decreasing activity of ROS scavenging enzymesOVCAR-3 cells[129]
Organoarsenical (PENAO)ROS production and mitochondrial depolarizationOVCAR-3, SKOV-3, TOV112D, TOV21G, and EFO27 cells[130]
SideroxylinThe induction of mitochondrial dysfunction and the activation of PI3K and MAPK signal transductionES2 and OV90 cells[131]
TEMPO (2,2,6,6-tetramethylpiperidine-1-oxyl) spin label [C43H43N6O2Ir1·PF6]˙ (Ir-TEMPO1) and two TEMPO spin labels [C52H58N8O4Ir1·PF6]˙ (Ir-TEMPO2)Antiproliferative activity and antioxidant activityA2780 cells[132]
Thiosemicarbazone iron chelators triapine and 2,2-dipyridyl-N,N-dimethylsemicarbazonePromote selective oxidation of mitochondrial Prx3A2780 and OVCAR-3 cells[133]
Transition metal complexes [Os(η6-p-cym)(Azpy-NMe2)I]+(p-cym=p-cymene, Azpy-NMe2=2-(p-[dimethylamino] phenylazo)pyridine)Superoxide formed in the first step of O2 reduction in mitochondriaA2780 cells[134]

Cell apoptosisA hybrid drug dichloroacetate-platinum(II) [DCA-Pt(II)]Mitochondria-mediated apoptosisA2780 and A2780DDP cells[135]
A monocationic, square-planar-platinum(II) complex [Pt(BDI(QQ))]Induces DNA damage, leading to p53 enrichment, mitochondrial membrane potential depolarization, and caspase-mediated apoptosisA2780 cells[136]
ApomorphineInducing caspase activation and mitochondrion-associated apoptosisES2 and OV90 cells[137]
AT-101/cisplatinReducing some pivotal antiapoptotic proteins such as Bcl-2, HIF-1A, cIAP-1, and XIAPOVCAR-3 cells[138]
Chaetomugilin JEnhancing apoptosis through inhibiting Pink1/Parkin-mediated mitophagyA2780 cells[139]
DanusertibDanu induced mitochondria-dependent apoptosis and autophagy in a dose- and time-dependent mannerC13 and A2780cp cells[140]
EpothilonesThe induction of apoptosis via mitochondrial pathwayOV-90 cells[141]
Exosomal microRNAsInhibitory effects on cells by blocking the cell cycle and activating mitochondria-mediated apoptosis signalingA2780 and SKOV-3 cells[142]
Flex-HetPromoting mitochondrial-mediated apoptosisA2780 and OVCAR-3 cells[143]
Gedunin isolatedTriggered severe ROS generation leading to DNA damage and cell cycle arrest in G2/M phase thus inhibiting cell proliferation. ROS upregulation also led to mitochondrial stress and membrane depolarization, which eventually resulted in mitochondria-mediated apoptosis following cytochrome C release, caspase 9 and 3 activation, and PARP cleavagePA-1 and OVCAR-3 cells[144]
GentiopicrosideLoss of MMP and induction of apoptosisSKOV-3 cells[145]
Glycyrrhetinic acid rhodamine B benzyl amide 35Triggered apoptosisA2780 cells[146]
Hedyotis diffusa willdInduced through the mitochondria-associated apoptotic pathwayA2780 cells[147]
JaceosidinInduction of apoptosis involving cytochrome c release from mitochondria to cytosolCAOV-3 cells[148]
Lytic peptides (YX-1)Activating the mitochondria apoptotic pathwayA2780 cells[149]
Modified mitochondria-targeted chlorambucil compoundsEffectively evading multidrug resistance resulting from cytosolic GST-μ upregulation by rapid E28 accumulation in mitochondriaA2780 cells[150]
NiclosamideInducing mitochondrial uncouplingHCT116 p53+/+(H2B-GFP) and HCT116 p53−/−(H2B-RFP) ovarian cell lines[151]
NilotinibReducing the viability of human ovarian cancer cells via mitochondrion-mediated apoptosisSKOV-3 cells[152]
PiperineRelease of mitochondrial cytochrome c to cytosol, activation of caspases 3 and 9A2780 cells[153]
Poly(lactic-co-glycolic acid) (PLGA) nanoparticles (NPs-cRGD)Upregulated the expression of p53 and promoted high levels of reactive oxygen species to induce the mitochondrial apoptosis pathwaySKOV3 and SKOV3-DDP cells[154]
Polyphyllin VIIInduces mitochondrial apoptosis by regulating the PP2A/AKT/DRP1 signaling axisA2780 and SKOV-3 cells[155]
QuercetinInduces mitochondrial-mediated apoptotic pathwayPA-1 cells[156]
rGO-AgReducing cell viability by mediating the generation of ROS, leaking lactate dehydrogenase, reducing mitochondrial membrane potential, and enhancing expression of apoptotic genesA2780 cells[157]
RY-2fUpregulation of p21, cyclin B1, Bax, Bad and cleaved-PARP, and suppression of cyclin A, CDK2, and Bcl-2A2780/CDDP cells[158]
Sambucus nigra agglutininInducing apoptosis in ovarian cancer cellsOAW-42 and SKOV-3 cells[159]
Spiropyrazoline oxindoles compound 1aMitochondria-mediated apoptosis and autophagyA2780 cells[160]
STX140 and STX641Depolarizing mitochondrial bioenergetics and activate caspase 3/7A2780 cells[161]
SW III-123Activated both intrinsic and extrinsic apoptotic pathwaysSKOV-3 cells[162]
SwerchirinInduction of mitochondrial apoptosisSKOV-3 cells[163]
Z-LigustilideinTriggering oxidative stress and inducing apoptosisOVCAR-3 cells[164]
α-Mangostin
BCL-2/XL inhibition (ABT-263)
Shikonin
The involvement of reactive oxygen species and mitochondrial-mediated apoptosis
Apoptosis regulated by BCL2-family proteins
Inducing mitochondria-mediated apoptosis
OVACAR-3 cells
OVCAR3, OV90, OAW28, OVCAR8, OVSAHO, OVCAR5, TKYNU, JHOM1, and RMUGS cells
A2780-CR cells
[165]
[166]
[167]
3,7,14,15-Tetra-acetyl-5-propanoyl-13(17)-epoxy-8,10(18)-myrsinadiene (TPEM)Promoting mitochondrial-mediated apoptosisOVCAR-3 and Caov-4 cells[168]
ChrysophanolInducing cell death and inhibiting invasiveness via mitochondrial calcium overloadES2 and OVCAR3 cells[169]

Calcium overloadGentisyl alcoholLoss of mitochondrial membrane potential with calcium dysregulationES2 and OV90 cells[170]
MethiothepinEpolarization of the mitochondrial membrane and increased mitochondrion-specific Ca2+ levels and decreased ATP production and oxidative phosphorylationES2 and OV90 cells[171]

AutophagyBMI1 inhibitor (PTC-209)Targeting PINK1-PARK2-dependent mitochondrial pathwayOVCAR4 and CP20 cells[172]