Review Article

Pathophysiology of Cisplatin-Induced Acute Kidney Injury

Table 2

Pathophysiological pathways implicated in cisplatin-induced AKI and their corresponding in vivo protective models and molecules.

Pathophysiological pathwayProtective model/moleculeEffectReferences

Apoptosis Pifithrinp53 inhibition—decreased apoptosis[38]
p53 knockout micep53 inhibition—decreased apoptosis[38]
Bax knockout miceBax inhibition—decreased apoptosis[24]
SIRT-1 overexpressionDeacetylation of p53—decreased apoptosis[43]
ResveratrolSIRT-1 activator—decreased apoptosis[44]
Taurine transporter gene (TauT) transgenic micep53 inhibition—decreased apoptosis[134]

AutophagyRapamycinInduction of autophagy[53]

ERK pathwayU0126MEK-ERK inhibition[27, 66]

p38 MAPK pathwaySKF-86002p38 MAPK inhibition[67]

Protein kinase C gamma pathwayPKCδ knockout modelDecreased apoptosis[135]
Rottlerin PKCδ inhibition—decreased apoptosis[135]

PPAR pathwayWY-14643 (PPAR ligand-fibrate) PPAR activation[136]
PPAR transgenic miceIncreased PPAR activity[76]

Oxidative stressN-AcetylcysteineAntioxidant[128]
DimethylthioureaHydroxyl radical scavenging[67, 68, 125, 127]
Dimethyl sulfoxideHydroxyl radical scavenger[125]
b-LapachoneNQO1 activator[137]
Amifostine Antioxidant[122, 123]
Sodium thiosulfateAntioxidant[121]
Vitamins C and EAntioxidant[129]

Cell cycleE2F1 knockout miceDecreased apoptosis[138]
PurvalanolCdk2 inhibitor—decreased apoptosis[57]
Sodium arsenite p27 induction—decreased apoptosis[60]

Mitochondrial metabolismMDIVI-1Dynamin-related protein-1 inhibition[139]
PKG-1 overexpressing transgenic miceImprovement of mitochondrial functions—decreased apoptosis[140]
SildenafilPKG-1 activation[140]

Iron metabolismCytochrome P450-2E1-null miceCytochrome P-450 inhibition[120]
Piperonyl butoxideCytochrome P-450 inhibition[119]
DeferoxamineIron chelation[125]

InflammationGM6001TNF-alpha inhibition[80]
TNF-alpha neutralizing antibodyTNF-alpha inhibition[80]
TNF-alpha knockout miceTNF-alpha inhibition[80]
SalicylatesTNF-alpha inhibition[82]
PentoxifyllineTNF-alpha inhibition[83]
Caspase-1 knockoutDecreased inflammation and apoptosis[46]
Anti-ICAM-1 (CD54)Decreased neutrophil infiltration[99]
TLR4 knockout mice modelDecreased inflammation[98]
CXCR-2 knockout miceDecreased inflammation[88]
Soluble ST2 Decreased inflammation, CD4+ T cell infiltration, and apoptosis[88]

Prostaglandin metabolismMicrosomal prostaglandin E synthase-1 knockout miceDecreased inflammation [141]
Celecoxib COX-2 inhibition[141]

T cellsT cell—deficient, CD4 and CD8 knockout modelsDecreased inflammation[81]
Anti-Tim-1 antibodiesDecreased inflammation and apoptosis[103]
CD4+CD25+ Treg cellsDecreased inflammation and apoptosis[106]

Mast cellsMast cell-deficient mice model (KitW-sh/W-sh) Decreased leukocyte infiltration and inflammation[112]
Sodium chromoglycateMast cell stabilization[112]

Glucagon-like
peptide-1 (GLP-1)
Exendin-4GLP-1 receptor agonist—decreased apoptosis[142]
AlogliptinDipeptidyl peptidase-4 inhibition—decreased apoptosis[142]

Klotho metabolismTransgenic Klotho overexpressing (Tg-Kl) miceDecreased apoptosis and decreased uptake of cisplatin[143]

Metalloproteinase metabolismActinoninMeprin A inhibitor[144]

Poly-ADP-ribose
polymerase-1 metabolism
PJ-34PARP1 inhibition—decreased inflammation[96]

Regeneration ErythropoietinDecreased apoptosis and increased mobilization of BM cells[145147]
Granulocyte colony stimulating factorIncreased mobilization of BM cells[148]
Mesenchymal stem cellsIncreased regeneration, decreased apoptosis[149154]

Anti-ICAM-1: anti-intercellular adhesion molecule-1, anti-TIM1: anti-T cell immunoglobulin mucin 1, BM: bone marrow, COX-2: cyclooxygenase-2, Cdk2: cyclin-dependent kinase-2, ERK: extracellular signal-regulated kinases, GLP-1: glucagon-like peptide-1, MAPK: mitogen-activated protein kinase, NQO1: NAD(P) H: quinone oxidoreductase 1, PARP-1: poly-ADP-ribose polymerase-1, PKC: protein kinase C, PKG-1: protein kinase G, PPAR: peroxisome proliferator-activated receptor, TLR-4: toll-like receptor 4, and TNF-alpha: tumor necrosis factor-alpha.