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1 amina propria) and targeting the epithelium (urothelium).
2 hway may exert these effects directly on the urothelium.
3 ld higher than in wild type mice with intact urothelium.
4 network resulted in an accurate detection of urothelium.
5 ormation and terminal differentiation of the urothelium.
6  in the developing and mature murine bladder urothelium.
7 d ATP release which presumably occurs in the urothelium.
8 P and type 1 pili for attachment to the host urothelium.
9  advanced transitional-cell carcinoma of the urothelium.
10 nd normally to mannosylated receptors in the urothelium.
11 thways including primary afferent nerves and urothelium.
12 wards developing specific endodermal derived urothelium.
13 erficial, 72 invasive lesions, and 52 normal urothelium.
14 eatment of patients with advanced TCC of the urothelium.
15  line expressing a cyclin D1 oncogene in the urothelium.
16 een UPEC and terminally differentiated human urothelium.
17 ponents originate from the same cells in the urothelium.
18 ill develop recurrent lesions throughout the urothelium.
19 id not cause histologic abnormalities of the urothelium.
20 el of expression compared to adjacent normal urothelium.
21 cell lineages in the prostate epithelium and urothelium.
22 1 and PTEN in intermediate and luminal mouse urothelium.
23 ceptor (B1R) is expressed in control bladder urothelium.
24 study as compared to their respective normal urothelium.
25 here through the interstitium to beneath the urothelium.
26  major differentiation products of mammalian urothelium.
27 ced transitional-cell carcinoma (TCC) of the urothelium.
28 iously shown that p63 is expressed in normal urothelium.
29 m; strong expression was also seen in normal urothelium.
30 g growth, differentiation, and repair of the urothelium.
31 e specific differentiation of a transitional urothelium.
32 hanically evoked purinergic signaling by the urothelium.
33  vivo involved a direct effect on neoplastic urothelium.
34 itional cell carcinomas compared with normal urothelium.
35 te in promoting COM crystal retention by the urothelium.
36 th the level of potential carcinogens in the urothelium.
37  in the treatment of advanced cancers of the urothelium.
38  for patients with advanced carcinoma of the urothelium.
39 duction pathway in TCC cell lines and normal urothelium.
40  major differentiation products of mammalian urothelium.
41 ngle-agent activity against carcinoma of the urothelium.
42 ssary for the proliferative action of KGF on urothelium.
43  the kidney's intercalated cells and bladder urothelium.
44  network was trained to automatically detect urothelium.
45  cells that recapitulate many aspects of the urothelium.
46 ntation of the cells within the multilayered urothelium.
47 dder compliance is governed primarily by the urothelium.
48 fections without causing lasting harm to the urothelium.
49 and one major type in the sub-urothelium and urothelium.
50 d invade the epithelial cells of the bladder urothelium.
51 24 was elevated compared with normal bladder urothelium.
52 l pilus for UPEC persistence in the inflamed urothelium.
53 matic BK virus latency is established in the urothelium.
54 in mechanically-induced ATP release from the urothelium.
55 alized pannexin 1 to all three layers of the urothelium.
56 naling, Ret expression, and apoptosis of the urothelium.
57 by the urethra and external adherence to the urothelium.
58 y and raised P2X3 receptor expression in the urothelium.
59 uld contribute to spread of cells within the urothelium.
60 ctivated beta-catenin signaling in the adult urothelium.
61 commonly predicted were biliary tract (18%), urothelium (11%), colorectal (10%), and non-small-cell l
62 rcinomatous urothelium but not in the normal urothelium; (2) uptake was detected at a very early stag
63 5-HT(3) receptors were not detected in mouse urothelium, 5-HT(3) receptors expressed on bladder senso
64 ernal surface of the bladder is lined by the urothelium, a stratified epithelium that forms an imperm
65 ibroblast growth factor receptor (FGFR) 2 in urothelium after cyclophosphamide exposure.
66 , synthesis of the HB-EGF precursor by human urothelium also suggests the possibility of using the DT
67 ed to increased proliferation of the bladder urothelium although this was not associated with hyperpl
68                                              Urothelium, an anatomical barrier for innate immune resp
69  due to their strategic position between the urothelium and afferent fibres.
70 long-term culture system of the normal mouse urothelium and an efficient culture system of human blad
71 amined the expression of PPARgamma in normal urothelium and bladder cancer in an attempt to assess it
72  distinct layer of smooth muscle between the urothelium and bladder detrusor, termed the muscularis m
73  in nine bladder cancer cells, paired normal urothelium and bladder tumor samples (n = 25), and tissu
74 ar bacterial reservoirs, which reside in the urothelium and can seed recurrent infections.
75                          Mutation of Dlg1 in urothelium and collecting ducts (via HoxB7-Cre or Pax2-C
76 family member expressed in both normal human urothelium and cultured normal human urothelial (NHU) ce
77 alized throughout the bladder, including the urothelium and detrusor smooth muscle.
78 ic hedgehog secreted by the nascent ureteric urothelium and ending with ureteric smooth muscle cell d
79 ptor mRNA transcripts are expressed in mouse urothelium and exert functional responses to 5-HT.
80 fection, we showed that MRSA attached to the urothelium and implant in patterns that colocalized with
81                              Invasion of the urothelium and induction of host inflammation are hypoth
82  PIEZO2 acts as a sensor in both the bladder urothelium and innervating sensory neurons.
83 erents, but new findings have pointed to the urothelium and interstitial cells as key participants in
84 ed kidney rudiments can induce production of urothelium and organize the mesenchyme to produce rhythm
85 hich are considered to be progenitors in the urothelium and other specialized epithelia.
86 t that it is also detected in mature bladder urothelium and primary urothelial cultures.
87 an 8-fold increase) is reminiscent of normal urothelium and remains slow-cycling.
88 se but few studies have investigated how the urothelium and sensory pathways are affected.
89 x vivo mouse bladder preparation with intact urothelium and SubU/LP but no detrusor, which allows dir
90        The preparation wall contained intact urothelium and suburothelium (SubU)/lamina propria (LP)
91 sive evidence that bacteria invade the human urothelium and suggest that diverse bacterial species an
92 he PTCH, SMOH and GLI3 transcripts in normal urothelium and TCC cell lines and rare PTCH mutations in
93                                       Normal urothelium and TCC cell lines express these three genes
94 m of transitional cells of the human bladder urothelium and that the soluble form of the growth facto
95 y be attributed to the interplay between the urothelium and the release of urothelially derived media
96 y signal feedback between basal cells of the urothelium and the stromal cells that underlie them.
97 erally, a prominent role has emerged for the urothelium and the underlying suburothelium in mechanose
98 ophosphamide (CYP)-induced cystitis) bladder urothelium and their contribution to lower urinary tract
99 s not expressed by normal or malignant human urothelium and therefore is unlikely to play a role in a
100 etrusor muscle and one major type in the sub-urothelium and urothelium.
101 s that block bacterial interactions with the urothelium and vaccines focused on preventing both acute
102 le of regenerating all cell types within the urothelium, and are marked by expression of the secreted
103 ed that B7-H3 is expressed within the liver, urothelium, and fetal kidney.
104 -cells, were detected within the mesenchyme, urothelium, and follicular aggregates in the majority of
105 helial cells, HCV29, established from normal urothelium, and H69, established from cholangiocytes, in
106 increases with age, is not present in normal urothelium, and occurs early in tumorigenesis, it can be
107  epithelial layers in the epidermis, cervix, urothelium, and prostate.
108 onal crystals covering the apical surface of urothelium, and provide unique opportunities for studyin
109  to the permeability barrier function of the urothelium, and UPIII deficiency can lead to global anom
110 nvasive tumors with matched normal-appearing urothelium, and urothelium from 12 age-matched UC-free p
111 VNUT was abundantly expressed in the bladder urothelium, and when the urothelium was weakly stimulate
112 m the apical and basolateral surfaces of the urothelium appears to be mediated by separate mechanisms
113 een low-grade, noninvasive tumors and normal urothelium are needed to identify genes involved in earl
114 It is proposed that ATP is released from the urothelium as a sensory mediator for the degree of diste
115 ER1 interaction, and identification of human urothelium as a site of HB-EGF precursor (proHB-EGF) syn
116 e examined the distribution of nAChRs in the urothelium, as well as their ability to influence the re
117 Deletion of Klf5 from the developing bladder urothelium blocked epithelial cell differentiation, impa
118 RPV4 is not only abundantly expressed in the urothelium but may also be localized in subepithelium, d
119 served in the hyperplastic and carcinomatous urothelium but not in the normal urothelium; (2) uptake
120 rategy: 67LR was not expressed in the normal urothelium but was present in the tumor, whereas TATI ex
121 was confined to umbrella cells in the normal urothelium, but extended to all cell layers in the tumor
122         mirabilisrapidly invades the bladder urothelium, but generally fails to establish an intracel
123 ns innervated the detrusor, vasculature, and urothelium, but only part of this innervation was sensor
124 esent in most normal human tissues including urothelium, but was reduced or absent in the majority of
125  reduce contact time between carcinogens and urothelium by diluting urinary metabolites and increasin
126 GFR3 may confer a selective advantage in the urothelium by overcoming normal contact inhibition of pr
127 ctivation of tumor suppressor p53 and pRb in urothelium by SV40 T antigen resulted in urothelial carc
128 ne, our data establish that normal mammalian urothelium can function not only as a permeability barri
129 ith our recent finding that transgenic mouse urothelium can secrete ectopically expressed human growt
130 ur data strongly support the hypothesis that urothelium can undergo at least three pathways of differ
131 ct4 is expressed in normal and in neoplastic urothelium carrying implications for a bladder cancer st
132 e developing prostate epithelium and bladder urothelium, cell lineages in these endoderm-derived epit
133 toxicity to telomerase-negative human normal urothelium cells but was highly cytotoxic to telomerase-
134 null mice develop a bladder with an abnormal urothelium, constituted by a single layer of cells that
135  cultures from the rat demonstrated that the urothelium contains both alpha3* and alpha7 receptors.
136 -dependent transcription plays a role in the urothelium controlling mitochondrial function developmen
137 inogen activators of ruminants are therefore urothelium derived rather then kidney derived as in some
138 der tumour-derived cell lines and one normal urothelium-derived cell line for genome-wide copy number
139 odel that enables studies on availability of urothelium-derived mediators at the luminal and anti-lum
140 itable for understanding local mechanisms of urothelium-DSM connectivity and for broad understanding
141 s to examine p63 isoforms in mouse and human urothelium during embryogenesis and tumor progression, r
142  the luminal and anti-luminal aspects of the urothelium during filling.
143 lows direct access to the SubU/LP surface of urothelium during filling.
144 thogenic Escherichia coli (UPEC) in the host urothelium during urinary tract infection (UTI) via the
145 t models utilized to study properties of the urothelium (e.g. cultured urothelial cells, bladder muco
146  interplay between invading bacteria and the urothelium elicits a mucosal response aimed at clearing
147   Mice with conditional deletion of Fgfr2 in urothelium enriched for KRT14(+) cells reproduced Fgfr2K
148                                  The bladder urothelium exhibits dynamic sensory properties that adap
149                                      Primary urothelium expressed high levels of FGFR3 transcripts.
150                                              Urothelium-expressed p53 mutant binds to and stabilizes
151     However, our findings also indicate that urothelium expresses a variety of other Oct4 splice-vari
152                                       Normal urothelium expresses myopodin in the cytoplasm and nucle
153 epithelial lining of the urinary bladder, or urothelium, expresses two subtypes of nicotinic acetylch
154  expressing FGFR3b-S243C in transgenic mouse urothelium expressing SV40T converted carcinoma-in-situ
155 al inactivation of both RB1 alleles in mouse urothelium failed to accelerate urothelial proliferation
156                                  The bladder urothelium failed to stratify and did not express termin
157                           The UPIII-depleted urothelium features small plaques, becomes leaky, and ha
158 luding the bladder, is lined by a stratified urothelium forming a highly differentiated, superficial
159 ith matched normal-appearing urothelium, and urothelium from 12 age-matched UC-free patients.
160                              We isolated the urothelium from a low-grade tumor and corresponding norm
161 ethylation patterns between normal-appearing urothelium from bladders with cancer and urothelium from
162 ci were hypermethylated in apparently normal urothelium from bladders with cancer, indicating an epig
163 ing urothelium from bladders with cancer and urothelium from cancer-free bladders.
164 the various stages in the differentiation of urothelium from ES cells, including the commitment to an
165 n and, in ketamine-induced cystitis, loss of urothelium from large areas of the bladder wall is a rep
166                  A separate cohort of normal urothelium from noncancer patients showed significantly
167  with the prostate findings, analysis of the urothelium from rescued p63-/- chimeras shows that umbre
168           When the bladder is distended, the urothelium functions as a sensor to initiate the voiding
169 ays after cyclophosphamide exposure, Fgfr2KO urothelium had defective regeneration, fewer cells, larg
170                                      Fgfr2KO urothelium had defects up to 6 months after injury versu
171                             By 12 weeks, the urothelium had regenerated and micturition patterns were
172                                 Nonmalignant urothelium had uniform expression of LN5 genes and lacke
173 f culture models for the bladder epithelium (urothelium) hampers the development of new therapeutics.
174 The newly recognized sensory role of bladder urothelium has generated intense interest in identifying
175 ced transitional-cell carcinoma (TCC) of the urothelium has promising activity and acceptable toxicit
176 ve diseases of the human bladder epithelium (urothelium), however a cognate HER1 ligand that can act
177 atic carcinoma, but not in the nonneoplastic urothelium, implicates BKV as an etiologic agent in the
178                 The luminal surface of mouse urothelium in contact with the urine is almost entirely
179                       The involvement of the urothelium in patterning the urinary tract is supported
180 y and for broad understanding of the role of urothelium in regulating continence and voiding.
181           Non-neuronal ATP released from the urothelium in response to bladder stretch is a key modul
182                      The release of ATP from urothelium in response to distension and its action on P
183 he release of several neurotransmitters from urothelium in response to distension and its action on r
184 ng evidence points to critical roles for the urothelium in the developing urinary tract and in the ge
185 s decreased pannexin 1 expression in the rat urothelium in vivo and increased bladder capacity.
186 K3CA may confer a selective advantage in the urothelium in vivo by overcoming normal contact-mediated
187 evels were greatly reduced (to <5% of normal urothelium) in cultured urothelial cells, which synthesi
188 from the bladder epithelium, also termed the urothelium, in response to mechanical or chemical stimul
189 n of a constitutively active Ha-ras in mouse urothelium induces simple urothelial hyperplasia that is
190          We employed a culture model of UPEC-urothelium interactions to examine the biochemical event
191  have suggested that mediators released from urothelium into suburothelium (SubU)/lamina propria (LP)
192 erapeutic agents can be absorbed through the urothelium into the bloodstream, leading to systemic adv
193     We found that in the presence of a leaky urothelium, intravesical K(+) sensitizes bladder afferen
194 rom being a passive container for urine, the urothelium is a crucial area within the bladder wall and
195 rom being a passive container for urine, the urothelium is a crucial part of the bladder.
196                      Although normal bladder urothelium is a mitotically quiescent barrier epithelium
197                                          The urothelium is a multilayered epithelium that serves as a
198                                          The urothelium is also known to secrete proteins into the ur
199                                          The urothelium is an epithelial barrier lining the bladder t
200 enes or inactivation of tumor suppressors in urothelium is considered critical for development of uro
201                                     Although urothelium is constantly bathed in high concentrations o
202              The apical surface of mammalian urothelium is covered by 16-nm protein particles packed
203      The apical surface of mammalian bladder urothelium is covered by large (500-1000 nm) two-dimensi
204                  The apical surface of mouse urothelium is covered by two-dimensional crystals (plaqu
205                      Carcinogenesis in human urothelium is driven by a high burden of mutations cause
206                                  The bladder urothelium is more than just a barrier.
207                 Mutant RXRA-driven growth of urothelium is reversible by PPAR inhibition, supporting
208 tivation of all Rb family genes in the mouse urothelium is sufficient to initiate bladder cancer deve
209                                              Urothelium is the protective lining of the urinary tract
210 owever, the function of Pparg in the healthy urothelium is unknown.
211  first- or second-line setting in TCC of the urothelium is warranted.
212 ncer arises in the superficial lining of the urothelium, it is a likely candidate for site-directed a
213                                       In the urothelium, its expression can be up-regulated after act
214  PPARgamma reportedly is expressed in normal urothelium, its function is unknown.
215 on; more broadly, our findings indicate that urothelium itself directly modulates voiding.
216 g in the ureteral mesenchyme, but not in the urothelium itself, led to urothelial disorganization, hi
217 und in both the smooth muscle (detrusor) and urothelium layers of the urinary bladder.
218 e direct effects of ketamine on normal human urothelium maintained in organ culture or as finite cell
219 invasive cancers (n = 56) or benign adjacent urothelium (n = 49).
220 related genes compared with tumor-associated urothelium, noninvasive urothelial lesions, and CIS.
221 sed angiogenesis when compared to the normal urothelium (NU) from which they are derived.
222 e-driven system ablating Foxa1 expression in urothelium of adult mice resulted in sex-specific histol
223 ansion but occurred independently across the urothelium of bladders with cancer.
224                      CPV was detected in the urothelium of graft ureters, associated with ureteritis
225 ser capture microdissection from the bladder urothelium of infected C3H/HeJ female mice.
226  we eliminated beta1-integrin selectively in urothelium of mice using Cre-LoxP targeted gene deletion
227 ings and urinary biomarkers derived from the urothelium of patients with CAKUTs might aid their contr
228 increase in cytokeratin 14 expression in the urothelium of the female Foxa1 knockout mouse and an inc
229 ble hyperplasia of intestinal epithelia, and urothelium of the urinary bladder and ureters.
230 akin II gene promoter, we have targeted into urothelium of transgenic mice a dominant-negative mutant
231  of an activated form of beta-catenin to the urothelium of transgenic mice using Cre-Lox technology (
232             Cancers arising from the bladder urothelium often exhibit lineage plasticity with regions
233              Bladder cancers derive from the urothelium, one of the most quiescent epithelia in the b
234 provide compelling evidence, indicating that urothelium, one of the slowest cycling epithelia, is rem
235 rase (ChAT) were performed in wholemounts of urothelium or detrusor or cryostat sections of the bladd
236 d in quiescent (G(0)) cells, indicating that urothelium overexpressing the cyclin D1 (an 8-fold incre
237 lin E immunoreactivity, compared with normal urothelium (P < 0.01).
238 ed in response to infection in the wild type urothelium, persists for months.
239 ct and HA degeneration and bladder repair by urothelium proliferation and differentiation.
240 D34(+) grafts provided the impetus for rapid urothelium regeneration.
241 my, ensuring complete removal of susceptible urothelium, remains to be determined.
242  experimental approaches previously used for urothelium research.
243 d that disrupting the uroplakin layer of the urothelium resulted in water and urea permeabilities (P)
244 onclude that loss of integrin signaling from urothelium results in incontinence and overactive bladde
245  both patients relative to a panel of normal urothelium samples obtained from individuals free of bla
246            Moreover, we demonstrate that the urothelium secretes these proteins in a polarized fashio
247                                      Bladder urothelium senses and communicates information about bla
248 ty of the UPII promoter in the generation of urothelium-specific adenoviral vectors and provide a pot
249                  We recently showed that the urothelium-specific expression of activated H-ras and SV
250                                      Using a urothelium-specific promoter of the uroplakin II gene, w
251                Here we report cloning of the urothelium-specific promoter uroplakin-II (UPK II) and g
252 b promoter of uroplakin II gene to drive the urotheliums-specific expression of oncogenes.
253 ere we showed TRPV4 expression in guinea-pig urothelium, suburothelium, and bladder smooth muscle, wi
254 excitatory and inhibitory mediators from the urothelium such as ATP and nitric oxide.
255  (Uro) A subtype shares features with normal urothelium such as keratin 5 (KRT5), P-cadherin (P-Cad),
256  a downregulation of SERT mRNA expression in urothelium, suggesting increased 5-HT bioavailability.
257  diminish the proliferative effect of KGF on urothelium, suggesting that the contribution of urinary
258    Hierarchical clustering classified normal urothelium, superficial, and invasive tumors with 82.2%
259 n of interferon gamma (IFNgamma) to infected urothelium suppressed expression of the viral genome.
260 ltilayered water-tight epithelium called the urothelium, surrounded by smooth muscle layers that, by
261                                              Urothelium synthesizes a group of integral membrane prot
262         Our data indicate that normal bovine urothelium synthesizes, as its major differentiation pro
263 er level of the EGFr mRNA and protein in the urothelium than the nontransgenic controls.
264 , and intrinsic signalling mechanisms of the urothelium that may contribute to the altered sensory pr
265 lving ATP and NO release presumably from the urothelium, that in turn could act on bladder C-fiber af
266 Cs are progenitors in the adult regenerating urothelium, that P cells, a transient population, are pr
267                                   Within the urothelium, the IL-6 native-tissue origin, the target ce
268 s to frank carcinoma nor regresses to normal urothelium through a period of one year.
269 lls, followed by rapid reconstitution of the urothelium through differentiation of underlying basal a
270 GF-beta1) may stimulate ATP release from the urothelium through vesicular exocytosis mechanisms with
271 Immunohistochemical staining revealed normal urothelium to express PPARgamma uniformly.
272 evidence that p53 deficiency predisposes the urothelium to hyperproliferation, but is insufficient fo
273                                  Exposure of urothelium to ketamine resulted in apoptosis, with cytoc
274 f uropathogenic Escherichia coli to the host urothelium to trigger the infection.
275  either low- or high-grade carcinomas in the urothelium transitional epithelium supporting a key role
276 least three pathways of differentiation: (a) urothelium-type pathway; (b) epidermis-type pathway; and
277  in metaplastic recombinants reflected human urothelium undergoing KSM.
278 -dsP21-322-2'F into mouse bladder results in urothelium uptake and extends survival of mice with esta
279 udy demonstrates that in the face of a leaky urothelium, urinary K(+) is the main determinant of affe
280 imian vacuolating virus 40 T (SV40T), in the urothelium (Uro-SV40T-AR(-/y)) had a similar incidence o
281 5-HT-producing enzymes was determined in the urothelium using RT-PCR.
282 ering to mannosylated receptors on the human urothelium via the carbohydrate-binding domain of the Fi
283 tability by stimulating ATP release from the urothelium via vesicular exocytosis mechanisms with mini
284  facet cell layer of the bladder epithelium (urothelium) via its FimH adhesin.
285           The slides were digitized, and the urothelium was annotated by expert observers.
286 e fibers in the urinary bladder detrusor and urothelium was decreased or eliminated after SCI.
287 rganization, terminal differentiation of the urothelium was not significantly affected.
288 ing of the urethral diameter and with normal urothelium was noted in all dogs surviving at least 28 d
289 ssed in the bladder urothelium, and when the urothelium was weakly stimulated (i.e. in the early fill
290 ts with measurable stage IV carcinoma of the urothelium were enrolled onto this trial.
291 arker of exposure, and are found also in the urothelium, where they give rise to a unique mutational
292        All four PARs are co-expressed in the urothelium, whereas PAR-1 and PAR-2 are predominant in t
293 dinary high level (0.1% of total protein) in urothelium, whereas Rab27b levels were greatly reduced (
294 an increase in NGF expression in the bladder urothelium, which depended on activation of the pelvic n
295 n limit sustained drug concentrations in the urothelium, which reduces efficacy, and small-molecule c
296 in PNCA in Uro-AR(-/y) than that found in WT urothelium, which suggests that Uro-AR may modulate blad
297                 Patients with cancers of the urothelium who had no prior chemotherapy (prior adjuvant
298 mutational processes and selection in normal urothelium with large heterogeneity across clones and in
299 mans for the key functional role of TRPV4 in urothelium with specific mechanisms and identify TRPV4 u
300 ing water develop hyperplasia of the bladder urothelium within 4 weeks of exposure.

 
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