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1 al, and functional similarities to the renal proximal tubule cell.
2 R transcriptional regulation occurs in renal proximal tubule cells.
3 ed transcription of proinflammatory genes by proximal tubule cells.
4 ocyte cell membrane and brush borders of the proximal tubule cells.
5 angial, cortical epithelial, epithelial, and proximal tubule cells.
6 in the kidney, is a potent mitogen for renal proximal tubule cells.
7 ing of Npt2a to the apical membrane of renal proximal tubule cells.
8 rapid uptake of the protein predominantly by proximal tubule cells.
9 device (RAD) containing 10(9) porcine renal proximal tubule cells.
10 ulation of the Na(+),K(+)-ATPase activity in proximal tubule cells.
11 s, and functional aspects in cultured murine proximal tubule cells.
12 to take place across the apical membrane of proximal tubule cells.
13 f the glomerular membrane and vacuolation of proximal tubule cells.
14 om mitochondria into cytosol in cultured rat proximal tubule cells.
15 transporters (OATs), which are expressed in proximal tubule cells.
16 tly localized at internal sites in the renal proximal tubule cells.
17 n highly expressed on the apical membrane of proximal tubule cells.
18 not pendrin, on the brush border membrane of proximal tubule cells.
19 ll cAMP-dependent Cl(-) conductance in mouse proximal tubule cells.
20 embranes enriched in megalin in L2 cells and proximal tubule cells.
21 adenovirus, was detected primarily in renal proximal tubule cells.
22 and the CD21 antigen are found primarily in proximal tubule cells.
23 ities may be coordinately regulated in renal proximal tubule cells.
24 pro-inflammatory cytokines in cultured human proximal tubule cells.
25 cotransporter kinetics were studied in renal proximal tubule cells.
26 measured in primary cultures of rabbit renal proximal tubule cells.
27 a 1B-AR but not alpha 1D-ARs regulate NHE in proximal tubule cells.
28 event in cell death after hypoxic injury in proximal tubule cells.
29 cant avenue for the entry of this toxin into proximal tubule cells.
30 lathrin-coated pits on the apical surface of proximal tubule cells.
31 ium bicarbonate cotransporter was studied in proximal tubule cells.
32 h normal-appearing and poorly differentiated proximal tubule cells.
33 roid hormone-stimulated cAMP accumulation in proximal tubule cells.
34 rption of tubularly-filtered proteins by the proximal tubule cells.
35 nriched near pro-inflammatory, failed-repair proximal tubule cells.
36 h POLR2A/RPB1 expression in dedifferentiated proximal tubule cells.
37 ess workload requiring energy and oxygen for proximal tubule cells.
38 substrate accumulation in cystinotic kidney proximal tubule cells.
39 of lipid droplets in kidney podocytes and in proximal tubule cells.
40 GF23 and PTH treatments in human and opossum proximal tubule cells.
41 of RPB1 is associated with dedifferentiated proximal tubule cells.
42 n mediates the hypertrophic growth of kidney proximal tubule cells.
43 s that lead to sex-biased gene expression in proximal tubule cells.
44 yze scRNA-seq data and data from a subset of proximal tubule cells.
45 mitochondrial morphology and respiration in proximal tubule cells.
46 f mitochondrial respiration in human primary proximal tubule cells.
47 gial cells, glomerular endothelial cells, or proximal tubule cells.
48 ne fully matched the transcriptome of native proximal tubule cells.
49 h conditioned media from serum-starved mouse proximal tubule cells.
50 n regulating paracellular transport of renal proximal tubule cells.
51 d pathophysiologic albumin concentrations in proximal tubule cells.
52 antagonism decreased fibronectin in cultured proximal tubule cells.
53 d fusion with the basolateral membrane in S1 proximal tubule cells.
54 ll growth inhibition and cell death in renal proximal tubule cells.
55 ained its efficacy to scavenge superoxide in proximal tubule cells.
56 oxalate crystals to inhibit their uptake by proximal tubule cells.
57 h border enzymes of the CPP before uptake by proximal tubule cells.
58 (-) across the basolateral membrane of renal proximal tubule cells.
59 cal in FSS-induced modulation of V-ATPase in proximal tubule cells.
60 d a decrease in phosphate transport in renal proximal tubule cells.
62 roximal tubule, was significantly reduced in proximal tubule cells after aristolochic acid I (AAI) tr
65 and protein kinase C (PKC) activity in renal proximal tubule cells, an effect that was abolished by S
66 nected from ERK activation in cultured renal proximal tubule cells and also in renal proximal tubules
67 pical (AP) and basolateral (BL) membranes in proximal tubule cells and both receptor sites undergo en
68 have reduced clathrin-coated pits in kidney proximal tubule cells and excrete specific plasma protei
69 undant levels of APOL1 mRNA were observed in proximal tubule cells and glomerular endothelial cells,
70 nificance of this interaction in human renal proximal tubule cells and HEK293 cells stably expressing
71 closporine A (CsA) treated and control human proximal tubule cells and identified mRNAs undergoing ac
73 characterizes the development of atrophy in proximal tubule cells and may contribute to the renal pa
74 ke of fluorescently labeled NEFA in cultured proximal tubule cells and microperfused rat proximal tub
75 for the involvement of AQP1 in migration of proximal tubule cells and possibly in the response of th
77 oped time-dependent glycogen accumulation in proximal tubule cells and recapitulated the renal Fancon
78 e, consistent with a pathway of synthesis in proximal tubule cells and release into the tubular lumen
79 wth factor (TGF)-beta1 mRNA in mesangial and proximal tubule cells and that treatment with anti-TGF-b
80 cular interplay between persistently injured proximal tubule cells and their neighboring fibroblasts.
81 nal evidence of a developmental link between proximal tubule cells and thin descending limb cells.
82 as localized to the brush border membrane of proximal tubule cells and was demonstrated to mediate Cl
83 detected by immunocytochemistry primarily on proximal tubule cells and was markedly upregulated in th
84 ted with defective HCO(3)(-) reabsorption in proximal tubule cells) and hypokalaemic periodic paralys
86 tally, Bmp7 also drives proliferation of the proximal tubule cells, and these ultimately constitute t
87 ion initiates its translocation to the renal proximal tubule cell apical membrane and the internaliza
95 at may use different nomenclature or cluster proximal tubule cells at different resolutions to define
96 lowing Bax translocation in ATP-depleted rat proximal tubule cells, Bak, a proapoptotic molecule that
101 receptor not only on the luminal surface of proximal tubule cells but also on the luminal surfaces o
102 - 1.8%) inhibited NHE3 activity in wild-type proximal tubule cells but neither forskolin (-3.2 +/- 3.
103 2)R antagonism occurred selectively in renal proximal tubule cells but not in renal endothelial cells
104 lized to colonic epithelial crypts and renal proximal tubule cells, but they do not physically intera
105 rs is antagonized by adenosine reuptake into proximal tubule cells by equilibrative nucleotide transp
106 the homeostasis of key cellular pathways in proximal tubule cells by preventing glucose toxicity.
107 ated kidney slices of the mouse and in mouse proximal tubule cells by processes involving mitogen-act
108 uded that albumin induces apoptosis in human proximal tubule cells by stimulating mitochondrial apopt
109 e-1 (KIM-1) is markedly upregulated in renal proximal tubule cells by stimuli that promote dedifferen
110 ating agents are transported from blood into proximal tubule cells by the basolateral membrane organi
111 During recovery by regeneration after AKI, proximal tubule cells can fail to redifferentiate, under
112 amatically prevents injury of cultured renal proximal tubule cells caused by myeloma light chains thr
113 ectively, these findings indicate that renal proximal tubule cell CB1R contributes to the pathogenesi
118 romatin region in Polr2a intron 1 in injured proximal tubule cells, containing a KLF6-binding site.
119 to identify the conditions under which adult proximal tubule cells could be directly transcriptionall
120 hat inhibition of HMG-CoA reductase in renal proximal tubule cells could reduce receptor mediated-end
122 (CG1), an atypical cyclin that induces G2/M proximal tubule cell cycle arrest, and epithelial dediff
126 experiments using primary cultures of renal proximal tubule cells derived from wild-type and NHERF-1
128 that specific deletion of CB1R in the renal proximal tubule cells did not protect the mice from obes
132 When examined in a primary culture of human proximal tubule cells endogenously expressing the CRLR-R
133 ing gene expression changes in podocytes and proximal tubule cells, even with an equivalent reduction
134 autocrine TGFbeta signaling in proliferating proximal tubule cells exceeds the levels that are necess
137 unidentified sites on the luminal surface of proximal tubule cells followed by endocytosis and degrad
138 ata indicate that rapid delivery of siRNA to proximal tubule cells follows intravenous administration
139 a transcription factor essential for mature proximal tubule cell formation, disrupted proper Aqp1 ex
140 e expression profiles in nondiseased primary proximal tubule cells from black patients revealed that
143 HE activity in freshly isolated and cultured proximal tubule cells from SHR and Wistar-Kyoto (WKY) no
144 nsport in brush border membrane vesicles and proximal tubule cells from sodium-hydrogen exchanger reg
145 als challenged with a low phosphate diet and proximal tubule cells from these animals cultured in a l
146 igration was compared in primary cultures of proximal tubule cells from wild-type and AQP1 null mice.
147 rder membrane vesicles and in cultured renal proximal tubule cells from wild-type but not from NHERF-
148 n and IL-1beta processing) in isolated renal proximal tubule cells from WT mice whereas these increas
151 in mice that expressed somatic ACE (sACE) in proximal tubule cells (Gs strain) or germinal ACE in the
152 AngII) receptors on the luminal membranes of proximal tubule cells has been recognized for many years
153 in proteasomes in HEK cells and human renal proximal tubule cells heterologously and endogenously ex
154 gated apoptotic mechanisms in cultured human proximal tubule cells (HKC-8) that were exposed to endot
155 ey cells expressing high Gb3 (cultured human proximal tubule cells [HPT]) were compared with non-kidn
157 blot analysis of primary cultures of normal proximal tubule cells identified a 140-kDa protein, conf
158 of both apical and basolateral membranes of proximal tubule cells in both sustained and recovering A
165 rface of hepatocytes and the luminal side of proximal tubule cells in the kidney, while not expressed
166 ant renal cells, the latter identified as S3 proximal tubule cells in the outer medulla by in situ hy
168 utant mice develop a unique subpopulation of proximal tubule cells in the S3 segment that displayed f
171 proliferating cell nuclear antigen-positive proximal tubule cells, in a punctate cytoplasmic distrib
172 t age-associated lysosomal defects in kidney proximal tubule cells, in the absence of frank CNS patho
173 rentially expressed genes were identified in proximal tubule cells, including 530 upregulated and 260
174 ng brush border membranes and cultured renal proximal tubule cells indicate a specific requirement fo
175 II (Ang II) stimulation of AT1 receptors in proximal tubule cells induces the recruitment of Na+,K+-
178 location to apical plasma membranes of renal proximal tubule cells, internalization/inactivation of N
179 stained activation of EGF receptor (EGFR) in proximal tubule cells is a hallmark of progressive kidne
184 demonstrate that metabolism of cisplatin in proximal tubule cells is required for its nephrotoxicity
185 entify K(+)-selective conductances in single proximal tubule cells isolated from frog kidney and to e
188 identified a Cl- conductance (GCl) in single proximal tubule cells isolated from frog kidney, which w
192 RTL-5 cells and on an immortalized rat renal proximal tubule cell line (IRPT cells), was obtained by
193 ences in more detail, the immortalized human proximal tubule cell line HK-2 was used in an in vitro m
194 sion in the recovery of cell adhesion in the proximal tubule cell line JTC-12 after peroxide injury.
195 s in vitro model of ATP depletion in a human proximal tubule cell line reproduces the pattern of gene
196 ogous expression of KIM-1 in an immortalized proximal tubule cell line triggered MCP-1 secretion and
201 esent studies utilizing a well characterized proximal tubule cell line, LLCPKcl4, we determined that
207 TNF-alpha and MCP-1 transcription in a human proximal tubule cell line; this effect was associated wi
208 ules and Slc27a2(-/-) or FATP2 shRNA-treated proximal tubule cell lines compared with wild-type or sc
209 sociated with lysosomal membranes in control proximal tubule cell lines suggesting that OCRL may func
211 ule assist device (RAD) containing 109 renal proximal tubule cells may be a new therapeutic approach
212 escending limb marker genes, suggesting that proximal tubule cells may give rise to thin descending l
213 nhibition of HMG-CoA reductase by statins in proximal tubule cells may reduce tubular protein reabsor
216 man INPP5B insertion, and primary culture of proximal tubule cells (mPTCs) derived from OcrlY/- kidne
219 ) reabsorption across the apical membrane of proximal tubule cells occurs via Cl(-)-formate exchange.
221 elling induced by Na+-alanine cotransport in proximal tubule cells of the frog kidney is followed by
225 Addition of purified TSP-1 to normal kidney proximal tubule cells or cells subjected to ATP depletio
226 n also reversed the corresponding protective proximal tubule cell phenotype in injured proximal tubul
227 el in mesangial cells, and identification of proximal tubule cell populations defined by pathogenic e
229 daily from the glomerular filtrate by kidney proximal tubule cells (PT), requiring ferrireductase act
234 er whose receptor (IL-22RA1) is expressed on proximal tubule cells (PTCs), in DDR activation and AKI.
235 have demonstrated that maladaptive repair of proximal tubule cells (PTCs), including induction of ded
236 AKI results in the dysfunction or death of proximal tubule cells (PTCs), triggering a poorly unders
238 ating that acutely injured, dedifferentiated proximal tubule cells, rather than fixed tubular progeni
239 nsfer, expression of NHERF-1 in NHERF-1(-/-) proximal tubule cells restored the inhibitory response t
242 2 (GLUT2) during diabetes may lead to renal proximal tubule cell (RPTC) injury, inflammation, and in
243 odulates AT1 receptor expression in cultured proximal tubule cells (RPTC) expressing DA1 receptors.
245 ata demonstrate that ANT2 depletion in renal proximal tubule cells (RPTCs) leads to a shift in their
246 ct of catalase (Cat) overexpression in renal proximal tubule cells (RPTCs) on nuclear factor erythroi
253 on of gallein on normal rat kidney (NRK-52E) proximal tubule cells significantly reduced (P < 0.05) S
254 a (PPARalpha) is an important determinant of proximal tubule cell size and is a likely mediator of co
255 ve proximal tubule cell phenotype in injured proximal tubule cell-specific ADAM17 knockout mice.
258 soluble amphiregulin into knockout mice with proximal tubule cell-specific deletion of amphiregulin's
259 unilateral ureteral obstruction in mice with proximal tubule cell-specific knockout of amphiregulin.
260 al enzyme, in IR-induced kidney injury using proximal tubule cell-specific Pdk4 knockout (Pdk4(ptKO))
262 tubule cells was confirmed in cultured human proximal tubule cells subjected to in vitro ischemic inj
263 e receptor-2 promoter-driven Cre-transfected proximal tubule cells, suggesting that knockdown of stan
264 educed amounts of megalin and cubilin at the proximal tubule cell surface in Rab38 knockout versus co
266 ) may directly, and differentially, increase proximal tubule cell susceptibility to superimposed atta
269 angiotensinogen and angiotensinogen mRNA in proximal tubule cells, the data indicate that AngII or p
270 at adjuvant montelukast can reduce injury to proximal tubule cells through activation of the p62/KEAP
271 e for all three alpha 1-AR subtypes in mouse proximal tubule cells through reverse transcription-poly
272 Spatial transcriptomics localizes injured proximal tubule cells to a pro-fibrotic microenvironment
273 um cross-talk is further studied by exposing proximal tubule cells to hyperglycemic conditions and mo
274 conditioned media from high glucose-treated proximal tubule cells to induce transmigration of mononu
275 TGF-beta1, we exposed confluent human renal proximal tubule cells to TGF-beta1 and observed a signif
277 2 receptors and Galphaq proteins of cultured proximal tubule cells to transactivate latent TGF-beta i
278 icated to provide a structural framework for proximal tubule cells to transmit mechanical forces and
279 and wild-type controls, as well as isolated proximal tubule cells, to two different AKI models (isch
281 pha 1-AR subtypes that regulate NHE in mouse proximal tubule cells, two strategies were used: (i) ant
282 Immediately after the onset of albuminuria, proximal tubule cells underwent a transient burst of pro
283 logously expressed in BS-C-1 cells or rabbit proximal tubule cells, uniform cytosolic and nuclear flu
288 intracellular redox-signaling pathway in the proximal tubule cells was well within levels that are se
293 cated in the brush border membrane of kidney proximal tubule cells, where it mediates renal urate sec
295 fect on NHE3 activity in opossum kidney (OK) proximal tubule cells, which lack expression of endogeno
296 idney, KIM-1 is upregulated on injured renal proximal tubule cells, which transforms them into phagoc
300 on the apical brush-border membrane of 786-O proximal tubule cells within the OOC surface, and the re