Vancomycin-Induced Kidney Injury: Animal Models of Toxicodynamics, Mechanisms of Injury, Human Translation, and Potential Strategies for Prevention.
Gwendolyn M PaisJiajun LiuSanja ZepcanSean N AvedissianNathaniel James RhodesKevin J DownesGanesh S MoorthyMarc H ScheetzPublished in: Pharmacotherapy (2020)
Vancomycin is a recommended therapy in multiple national guidelines. Despite the common use, there is a poor understanding of the mechanistic drivers and potential modifiers of vancomycin-mediated kidney injury. In this review, historic and contemporary rates of vancomycin-induced kidney injury (VIKI) are described, and toxicodynamic models and mechanisms of toxicity from preclinical studies are reviewed. Aside from known clinical covariates that worsen VIKI, preclinical models have demonstrated that various factors impact VIKI, including dose, route of administration, and thresholds for pharmacokinetic parameters. The degree of acute kidney injury (AKI) is greatest with the intravenous route and higher doses that produce larger maximal concentrations and areas under the concentration curve. Troughs (i.e., minimum concentrations) have less of an impact. Mechanistically, preclinical studies have identified that VIKI is a result of drug accumulation in proximal tubule cells, which triggers cellular oxidative stress and apoptosis. Yet, there are several gaps in the knowledge that may represent viable targets to make vancomycin therapy less toxic. Potential strategies include prolonging infusions and lowering maximal concentrations, administration of antioxidants, administering agents that decrease cellular accumulation, and reformulating vancomycin to alter the renal clearance mechanism. Based on preclinical models and mechanisms of toxicity, we propose potential strategies to lessen VIKI.
Keyphrases
- oxidative stress
- methicillin resistant staphylococcus aureus
- acute kidney injury
- diabetic rats
- induced apoptosis
- cell therapy
- endothelial cells
- high glucose
- cell cycle arrest
- healthcare
- staphylococcus aureus
- dna damage
- drug induced
- heart rate
- human health
- cardiac surgery
- mesenchymal stem cells
- stem cells
- resistance training
- bone marrow
- cell proliferation
- ischemia reperfusion injury
- climate change
- quality improvement
- case control
- stress induced
- high dose
- oxide nanoparticles
- pluripotent stem cells