Biomarker-Development Proteomics in Kidney Transplantation: An Updated Review.
Vittorio SirolliLuca PiscitaniMario BonominiPublished in: International journal of molecular sciences (2023)
Kidney transplantation (KT) is the optimal therapeutic strategy for patients with end-stage renal disease. The key to post-transplantation management is careful surveillance of allograft function. Kidney injury may occur from several different causes that require different patient management approaches. However, routine clinical monitoring has several limitations and detects alterations only at a later stage of graft damage. Accurate new noninvasive biomarker molecules are clearly needed for continuous monitoring after KT in the hope that early diagnosis of allograft dysfunction will lead to an improvement in the clinical outcome. The advent of "omics sciences", and in particular of proteomic technologies, has revolutionized medical research. Proteomic technologies allow us to achieve the identification, quantification, and functional characterization of proteins/peptides in biological samples such as urine or blood through supervised or targeted analysis. Many studies have investigated proteomic techniques as potential molecular markers discriminating among or predicting allograft outcomes. Proteomic studies in KT have explored the whole transplant process: donor, organ procurement, preservation, and posttransplant surgery. The current article reviews the most recent findings on proteomic studies in the setting of renal transplantation in order to better understand the effective potential of this new diagnostic approach.
Keyphrases
- kidney transplantation
- label free
- end stage renal disease
- chronic kidney disease
- case control
- oxidative stress
- peritoneal dialysis
- healthcare
- minimally invasive
- mass spectrometry
- case report
- public health
- stem cells
- systematic review
- cancer therapy
- coronary artery disease
- type diabetes
- single molecule
- single cell
- drug delivery
- coronary artery bypass
- atomic force microscopy
- climate change
- mesenchymal stem cells