Combining Proteomics and Organoid Research to Unravel the Multifunctional Complexity of Kidney Physiology Enhances the Need for Controlled Organoid Maturation

This review aims to highlight how the study of kidney organoids combined with proteomic analysis can deepen our understanding of renal physiology and disease. Proteomics quantifies proteins in a sample, allowing us to determine which proteins are present, how abundant they are, and how they are modified. These data may reveal the pathways that are active in the kidney organoids and how they change in disease, helping to pinpoint candidate biomarkers. Kidney organoids are three-dimensional structures derived from induced pluripotent stem cells (iPS) that recapitulate many architectural and functional features of the adult organ. Because they can be generated in large numbers under defined conditions, organoids provide a promising platform for testing how genetic mutations, environmental stresses, or drugs affect kidney development and pathology. When proteomic profiles are obtained from mature organoids, researchers can directly link protein-level changes to phenotypic outcomes observed in the model. This integration makes it possible to map disease-related networks at the molecular level and to assess the impact of therapeutic interventions in a system that more closely resembles human kidney tissue than traditional cell lines. A current limitation is that many kidney organoids do not reach the full maturation seen in vivo; they often lack complete segmental differentiation and the functional robustness of adult nephrons. Improving the maturation state of organoids will be essential for accurately modeling chronic kidney diseases and for translating findings into clinically relevant therapies.

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Publication Details

Journal
Organoids
Published
2025-11-14
DOI
https://doi.org/10.3390/organoids4040028
Citations
1
Primary Topic
Renal and related cancers
Type
article
Field-Weighted Citation Impact
0.81

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article

Combining Proteomics and Organoid Research to Unravel the Multifunctional Complexity of Kidney Physiology Enhances the Need for Controlled Organoid Maturation

Kathrin Groeneveld, Ralf Mrowka
1 citations
Organoids
Renal and related cancers
0.81
article

Combining Proteomics and Organoid Research to Unravel the Multifunctional Complexity of Kidney Physiology Enhances the Need for Controlled Organoid Maturation

Kathrin Groeneveld, Ralf Mrowka
article en
1 citations

Abstract

This review aims to highlight how the study of kidney organoids combined with proteomic analysis can deepen our understanding of renal physiology and disease. Proteomics quantifies proteins in a sample, allowing us to determine which proteins are present, how abundant they are, and how they are modified. These data may reveal the pathways that are active in the kidney organoids and how they change in disease, helping to pinpoint candidate biomarkers. Kidney organoids are three-dimensional structures derived from induced pluripotent stem cells (iPS) that recapitulate many architectural and functional features of the adult organ. Because they can be generated in large numbers under defined conditions, organoids provide a promising platform for testing how genetic mutations, environmental stresses, or drugs affect kidney development and pathology. When proteomic profiles are obtained from mature organoids, researchers can directly link protein-level changes to phenotypic outcomes observed in the model. This integration makes it possible to map disease-related networks at the molecular level and to assess the impact of therapeutic interventions in a system that more closely resembles human kidney tissue than traditional cell lines. A current limitation is that many kidney organoids do not reach the full maturation seen in vivo; they often lack complete segmental differentiation and the functional robustness of adult nephrons. Improving the maturation state of organoids will be essential for accurately modeling chronic kidney diseases and for translating findings into clinically relevant therapies.

OrganoidsVol. 4(4)
Jena University Hospital (DE), Diamed Medizintechnik (Germany) (DE)
Freistaat Thüringen, European Commission, European Regional Development Fund
Openalex Percentile: Top 22%
Renal and related cancers
0.81
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