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Kidney Stone Induces Developmental Stage-specific Alterations in Gene Expression

ABSTRACT: OBJECTIVES: Kidney stone diseases are common in premature infants, but the underlying molecular and cellular mechanisms are not fully defined. We carried out a prospective observational study using microarray analysis to identify factors that may be crucial for the initiation and progression of stone-induced injury in the developing mouse kidney. METHODS: Mice with adenine phosphoribosyltransferase (Aprt) deficiency develop 2,8-dihydroxyadenine (DHA) nephrolithiasis. Gene expression changes between Aprt-/- and Aprt+/+ kidneys from newborn and adult mice were compared using Affymetrix gene chips. RESULTS: We observed that: (i) gene expression changes induced by Aprt deficiency are developmental stage-specific; (ii) maturation-related gene expression changes are delayed in developing Aprt-/- kidneys; and (iii) immature Aprt-deficient kidneys contain large numbers of intercalated cells blocked from terminal differentiation. CONCLUSIONS: This study presents a comprehensive picture of the transcriptional changes induced by stone injury in the developing mouse kidney. Our findings help explain growth impairment in kidneys subject to injury during the early stages of development.

ORGANISM(S): Mus musculus

PROVIDER: GSE18160 | GEO | 2010/01/13

SECONDARY ACCESSION(S): PRJNA119463

REPOSITORIES: GEO

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Kidney Stone Induces Developmental Stage-specific Alterations in Gene Expression

Project description:OBJECTIVES: Kidney stone diseases are common in premature infants, but the underlying molecular and cellular mechanisms are not fully defined. We carried out a prospective observational study using microarray analysis to identify factors that may be crucial for the initiation and progression of stone-induced injury in the developing mouse kidney. METHODS: Mice with adenine phosphoribosyltransferase (Aprt) deficiency develop 2,8-dihydroxyadenine (DHA) nephrolithiasis. Gene expression changes between Aprt-/- and Aprt+/+ kidneys from newborn and adult mice were compared using Affymetrix gene chips. RESULTS: We observed that: (i) gene expression changes induced by Aprt deficiency are developmental stage-specific; (ii) maturation-related gene expression changes are delayed in developing Aprt-/- kidneys; and (iii) immature Aprt-deficient kidneys contain large numbers of intercalated cells blocked from terminal differentiation. CONCLUSIONS: This study presents a comprehensive picture of the transcriptional changes induced by stone injury in the developing mouse kidney. Our findings help explain growth impairment in kidneys subject to injury during the early stages of development. Total RNA were extracted from kidneys of 12 newly born and 6 adult mice (half Aprt-/- and half control). Gene expression changes between Aprt-/- and Aprt+/+ kidneys from newborn and adult mice were compared using Affymetrix gene chips.

2010-01-13 | E-GEOD-18160 | biostudies-arrayexpress

Single-nucleus atlas of the human kidney papilla identifies significant immune injury in patients with stone disease

Project description:Kidney stone disease causes significant morbidity and increases health care utilization. In this dataset, we applied a single-nucleus assay to renal papila samples in order to charachterize the cellular and molecular niches in patients with calcium oxalate (CaOx) stone disease and healthy subjects. In addition to identifying cell types important in papillary physiology, we characterize collecting duct cell subtypes and an undifferentiated epithelial cell type that was more prevalent in stone patients. Despite the focal nature of mineral deposition in nephrolithiasis, we uncover a global injury signature characterized by immune activation, oxidative stress and extracellular matrix remodeling. We also identify the association of MMP7 and MMP9 expression with stone disease and mineral deposition, respectively. MMP7 and MMP9 are significantly increased in the urine of patients with CaOx stone disease, and their levels correlate with disease activity. Our results define the spatial molecular landscape and specific pathways contributing to stone-mediated injury in the human papilla and identify associated urinary biomarkers.

2023-05-04 | GSE231569 | GEO

Integrated proteomics and transcriptomics profiling reveals distinct aspects of kidney stone related genes in calculi rats

Project description:We conducted a calculi rat model, applied for an integrated proteomic and transcriptomic analysis to characterize the distinct gene expression profiles in calculi oxalate stone formation and its related kidney injury. Six distinct gene clusters were identified according to the consistency of transcriptome and proteome. Gene Ontology and KEGG pathway enrichment was performed to analyze the functions of each sub-group differentially expressed genes. Results showed that the calculi rat kidney was increased expression of injured & apoptotic markers and immune-molecules, and decreased expression of solute carriers & transporters and many metabolic related factors. The present proteotranscriptomic study provided a data resource and new insights for better understanding of the pathogenesis of nephrolithiasis, will hopefully facilitate the future development of new strategies for the recurrence prevention and treatment in patients with kidney stone disease.

2023-05-10 | PXD039169 | Pride

A Spatial Transcriptomic atlas of the human kidney papilla identifies significant immune injury in patients with stone disease

Project description:Kidney stone disease causes significant morbidity and increases health care utilization. The pathogenesis of stone disease is incompletely understood, due in part to the poor characterization of the cellular and molecular makeup of the human papilla and its alteration with disease. In this work, we characterize the human renal papilla in health and calcium oxalate stone disease using single nuclear RNA sequencing, spatial transcriptomics and high-resolution large scale multiplexed 3D and Co-Detection by indexing (CODEX) imaging. We define and localize subtypes of principal cells enriched in the papilla as well as immune and stromal cell populations. We further uncovered an undifferentiated epithelial cell signature in the papilla, particularly during nephrolithiasis.

2023-05-04 | GSE206306 | GEO

Gene expression profiles in ethylene glycol-induced renal stone formation and phlorizin treatment

Project description:Microarray analysis for total RNA from rat renal cortex and outer meulla. Nephrolithiasis is a disorder with a poor quality of life due to severe pain and no effective medication. Sodium-glucose cotransporter-2 (SGLT2) inhibitors, an anti-diabetic agent, have diuretic and anti-inflammatory effects, suggesting their benefit in treating nephrolithiasis. However, the effects of SGLT2 inhibition against renal stone formation have not been elucidated. To check gene expression profiles, microarray analysis was performed.

2023-03-22 | GSE202031 | GEO

A Blood-based Multi-omic Landscape for the molecular characterization of Kidney Stone Disease

Project description:Kidney stone disease (KSD, also named renal calculi, nephrolithiasis, or urolithiasis) is a common urological disease entailing the formation of minerals and salts that form inside the urinary tract, frequently caused by diabetes and high blood pressure, hypertension, and monogenetic components in most patients. 10% of adults worldwide are affected by KSD, which incidence continues to be highly prevalent and increasing. For the identification of novel therapeutic targets in KSD to deal with this situation, we adopted high-throughput sequencing and mass spectrometry (MS) techniques in this study and carried out an integrative analysis of exosome proteome and DNA methylation data from blood samples of normal and KSD patients. Our study described the profiling of serum exosome and DNA methylation in blood from both normal individuals and those with Kidney Stone Disease (KSD), finding the overexpressed proteins and the demethylated DNA genes in KSD samples are related to immune reactions. The consistency of the results in proteomics and epigenetics supports the feasibility of the comprehensive strategy. Our understanding of the molecular landscape of KSD provides an opportunity for more information on the pathogenic mechanism, precise diagnosis, and treatment for KSD.

2024-01-01 | GSE240640 | GEO

Polarization profiling of renal macrophages in stone model mice

Project description:We recently reported elimination of renal crystals and migration of macrophages (MM-OM-^F) around crystals in hyperoxaluric mice, suggesting MM-OM-^Fs might eliminate crystals. MM-OM-^Fs are of 2 phenotypes: inflammatory (M1) and anti-inflammatory (M2). Because M2MM-OM-^Fs are considered to be involved in tissue repair and regeneration, we focused attention on their suppressive role in renal crystal formation. Hence, we investigated the gene array profiling of renal macrophages in stone model mice and CSF-1-deficient stone model mice. B6C3Fe a/a-Csf1op/J wild type/homozygous mice were admistered 80mg/kg gyyoxylate (GOX) for 6days, then the kidneys were extracted and sorted CD11b+/CD11c+ macrophages using autoMACS. The gene expression of WT- and op/op-macrophages were investigated using bone marrow derived M1/M2 macrophages as controls.

2013-10-22 | E-GEOD-51466 | biostudies-arrayexpress

Oxidative modifications of urinary proteins increase kidney stone risk

Project description:Clinical and animal studies have demonstrated the increasing evidence of oxidative stress in kidney stone disease. Recent findings have shown that the interactions between calcium oxalate (CaOx) crystals and renal tubular cells can promote many cellular events such as cell proliferation, cell death, cellular injury, mitochondrial dysfunction and inflammatory cascade. All of these cellular events are associated with oxidative stress and overproduction of free radicals and reactive oxygen species (ROS) such as superoxide and hydrogen peroxide in renal tubular cells. However, almost all of these references have shown that oxidative stress occurs after the causative crystals have been deposited in the kidney or exposed to renal tubular cells, whereas its primary role as the etiology remained unclear. In this study, we examined effects of oxidative modifications of urinary proteins on CaOx stone formation processes. Urinary proteins were modified by performic oxidation and the presence of oxidatively modified urinary proteins was verified, quantified and characterized by Oxyblot assay and tandem mass spectrometry (nanoLC-ESI-LTQ-Orbitrap-MS/MS). Subsequently, activities of oxidatively modified urinary proteins on CaOx stone formation processes were examined.

2021-11-03 | PXD019360 | Pride

Gene Expression Analysis of mouse kidney at the developmental day 15 under iron deficient diet

Project description:While it is clear that iron deficiency affects both human and rodent development, and particularly kidney development, the precise pathological changes that occur with iron deficiency have not been distinguished. For example, it is not clear which compartment of the kidney is predominantly affected nor it is clear either which stage of development or which cell type require the most iron. In this study, we used an in vivo mouse model of iron deficiency in order to better understand the targeting of iron in the developing kidney. Mouse kidneys at the embrionic stage E15 were used for the total RNA extraction

2012-03-15 | E-GEOD-27999 | biostudies-arrayexpress

Identification of down-stream targets of Notch signaling within the developing mosue kidney collecting ducts.

Project description:Notch signaling deficient kidney collecting ducts may serve as a useful resource to identify principal cell lineage and intercalated lineage specific factors since they develop a reduced number of principal cells and an increased number of intercalated cells compared with wild type kidney collecting ducts. We compared RNA from three E18.5 mouse kidneys per group: HoxB7Cre;RBPJf/-;Rosa+/Eyfp (Notch signaling deficient; mutant) versus RBPJf/f;Rosa+/Eyfp (wild type).

2017-02-27 | GSE68389 | GEO

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