コーパス検索結果 (1語後でソート)
通し番号をクリックするとPubMedの該当ページを表示します
1 cells (epidermis/limbus) or K3/K12(+) cells (corneal epithelium).
2 re localized in basal layer of entire murine corneal epithelium.
3 m development and daily renewal of the adult corneal epithelium.
4 face, acting to protect the integrity of the corneal epithelium.
5 red for P. aeruginosa traversal of the human corneal epithelium.
6 II (Tbr2) was conditionally ablated from the corneal epithelium.
7 fibrosis transmembrane regulator in diabetic corneal epithelium.
8 olarity, and separation of lens vesicle from corneal epithelium.
9 regulator-this time for nerves entering the corneal epithelium.
10 ves by increasing nerve branching within the corneal epithelium.
11 key protein in maintaining integrity of the corneal epithelium.
12 ce that express abundant syndecan-1 in their corneal epithelium.
13 egulated level of p68 RNA helicase in mutant corneal epithelium.
14 o the mouse corneal epithelium and the human corneal epithelium.
15 itating gammadelta T cell migration into the corneal epithelium.
16 in ex vivo tissues and in vitro cultures of corneal epithelium.
17 MBP, and MPZL1 mRNAs were expressed only in corneal epithelium.
18 RP1 is expressed at high levels in the mouse corneal epithelium.
19 itical for the proper differentiation of the corneal epithelium.
20 -/-) mice showed phosphorylated Stat3 in the corneal epithelium.
21 iform and round-shaped, were detected in the corneal epithelium.
22 e bundles form a subbasal plexus beneath the corneal epithelium.
23 Sey/Sey cells were absent from the lens and corneal epithelium.
24 tem cells (LSCs) that continuously renew the corneal epithelium.
25 r removal of a 2-mm diameter area of central corneal epithelium.
26 tion of soluble precursors in UVB-stimulated corneal epithelium.
27 characterized by conjunctivalization of the corneal epithelium.
28 differentiated (TD) cell populations of the corneal epithelium.
29 onditionally overexpresses reporter genes in corneal epithelium.
30 cell is an important area of interest in the corneal epithelium.
31 olecular mechanism(s) of PA infection in the corneal epithelium.
32 ucrin gene expression in the differentiating corneal epithelium.
33 d as a model to study gene expression in the corneal epithelium.
34 ble surface and result in desiccation of the corneal epithelium.
35 study to delineate their roles in the human corneal epithelium.
36 he recruitment of MHC class II(+) LCs to the corneal epithelium.
37 ert different molecular effects in the human corneal epithelium.
38 ately differentiate to form the multilayered corneal epithelium.
39 mobilization of MHC class II(+) LCs into the corneal epithelium.
40 main changes of these components occurred in corneal epithelium.
41 iate, and desquamate similar to normal human corneal epithelium.
42 tant roles in maintaining normal function of corneal epithelium.
43 e immunoreactivity in both RCE cells and rat corneal epithelium.
44 rneal epithelial cells and in the intact rat corneal epithelium.
45 eye, which is detected by the nerves in the corneal epithelium.
46 expression to the entire lens but not to the corneal epithelium.
47 e cells at producing progeny to populate the corneal epithelium.
48 ith fluorescein to assess the quality of the corneal epithelium.
49 th factor (OGF), [Met(5)]-enkephalin, in the corneal epithelium.
50 uble protein), which resembles the zebrafish corneal epithelium.
51 the normal homeostatic turnover rate of the corneal epithelium.
52 wing, but not in superficial, cells of human corneal epithelium.
53 l, as well as suprabasal, cells of adult rat corneal epithelium.
54 epithelium, and apoptosis in the basal layer corneal epithelium.
55 ed the cell proliferation rate in the rabbit corneal epithelium.
56 owed that destrin is highly expressed in the corneal epithelium.
57 eted products, and ability to desquamate the corneal epithelium.
58 Pseudomonas aeruginosa infection of healing corneal epithelium.
59 ng that hBD-2 is upregulated in regenerating corneal epithelium.
60 Pax6 in maintenance and repair of the adult corneal epithelium.
61 Bmal1, Per2, Cry1, and Rev-erbalpha) in the corneal epithelium.
62 the total water-soluble protein in the mouse corneal epithelium.
63 rformed by confocal microscopy on wholemount corneal epithelium.
64 aside from that in the PMNs occurred in the corneal epithelium.
65 results in precocious stratification of the corneal epithelium.
66 lacrimal gland and mitogenic activity at the corneal epithelium.
67 on between 4-HNE and oxidative stress in the corneal epithelium.
68 eripheral epithelium on wound healing of the corneal epithelium.
69 cause inflammation and keratinization of the corneal epithelium.
70 TLR4, a similar expression, occurred in the corneal epithelium.
71 x) induction to overexpress TGF-alpha in the corneal epithelium.
72 optimized to maximize the sensitivity of the corneal epithelium.
73 tion to differentiation in the epidermis and corneal epithelium.
74 on is up-regulated in diseased epidermis and corneal epithelium.
75 crog water-soluble protein) than the ventral corneal epithelium (5-7 cell layers; approximately 1.63
78 expression increases at the leading edge of corneal epithelium after injury in an organ culture mode
79 transient amplifying cells makes the limbal/corneal epithelium an exceptionally suitable system for
81 coherence tomography (UHR-OCT) can image the corneal epithelium and Bowman's layer and measurement th
82 he entire vertical thickness profiles of the corneal epithelium and Bowman's layer can provide valuab
83 power of vertical thickness profiles of the corneal epithelium and Bowman's layer imaged by UHR-OCT
85 IL-6, and IL-1beta protein were observed in corneal epithelium and conjunctiva from dry eye mice.
86 mulated IL-33 mRNA and protein expression by corneal epithelium and conjunctiva in wild type, but not
87 ion of chemokines and their receptors by the corneal epithelium and conjunctiva of C57BL/6 and BALB/c
90 od vessels, optic nerve vascular structures, corneal epithelium and endothelium, and lens epithelium.
91 OPN was present in the trabecular meshwork, corneal epithelium and endothelium, iris, ciliary body,
94 degeneration developed, with thinning of the corneal epithelium and eventually perforation after 7 da
96 ptor that is constitutively expressed in the corneal epithelium and has been implicated in many homeo
98 s envelope precursors are expressed in human corneal epithelium and in HCECs, acute UVB stress differ
99 madelta T cells in the limbal and peripheral corneal epithelium and in the corneal stroma adjacent to
100 ium, is strongly constitutively expressed by corneal epithelium and is mechanistically responsible fo
102 icroscopy provides objective measures of the corneal epithelium and may significantly improve the eva
105 YRP1 is a novel antimicrobial protein of the corneal epithelium and protects the ocular surface from
106 reaks down, allowing bacteria to bind to the corneal epithelium and resulting in spontaneous keratiti
107 ase was constitutively expressed in both the corneal epithelium and several retinal layers before int
109 t to the corneal stroma, was elevated in the corneal epithelium and stroma of control, but not MyD88(
113 ics of keratoconus, including visual acuity, corneal epithelium and stromal thickness changes, cornea
114 : anterior stromal scars, dystrophies of the corneal epithelium and the anterior stroma, and elevated
117 nclusion, 4-HNE plays an oxidant role in the corneal epithelium and this work provides a new strategy
120 on, viral plaques could be visualized in the corneal epithelium and viral DNA copies were detected in
121 PRCE cells, loss of the superficial layer of corneal epithelium, and apoptosis in the basal layer cor
122 activation of NF-kappaB in the ciliary body, corneal epithelium, and retinal wall of the rat eye.
123 NOS, and COX-2 proteins in the ciliary body, corneal epithelium, and retinal wall was also significan
124 ssion was sporadically detected in the basal corneal epithelium, and the number of K12-positive basal
127 BrdU-labeled pairs of cells over the entire corneal epithelium at day 2 compared with the number in
128 ddition to the known Langerhans cells in the corneal epithelium, at least three BM-derived cell subse
129 he location of each BrdU-labeled cell in the corneal epithelium (basal or suprabasal) was determined.
130 nase protein expression was primarily in the corneal epithelium before corneal infection and was also
133 (NTR) was noted in the full-thickness of the corneal epithelium but was limited to the superficial la
135 d encoding S. pyogenes Cas9 and sgRNA to the corneal epithelium by intrastromal injection and acheive
138 The increased beta-galactosidase activity in corneal epithelium caused by doxycycline returned to bas
139 minantly present on basal cells of the mouse corneal epithelium (CE) throughout development and in th
140 lium: cK12-positive and MUC1-positive cells; corneal epithelium: cK12-positive and MUC1-negative cell
141 y revealed successful regeneration of normal corneal epithelium (CK3(+)/12(+)) without admixture of c
145 s of CD11c, TSLPR, and OX40L detected in the corneal epithelium, conjunctiva, and cervical lymph node
146 t intact, TGF-beta2 remained confined to the corneal epithelium, consistent with the absence of a fib
150 eneration of a functional and transplantable corneal epithelium derived from human induced pluripoten
151 and suggest the novel phenomenon that human corneal epithelium-derived TSLP may serve as a link betw
152 ferentiation, and plays an important role in corneal epithelium development and daily renewal of the
159 no degenerative changes were observed in the corneal epithelium during cultivation using histology fo
160 on of the antimicrobial peptide LL-37 in the corneal epithelium during wound healing and to investiga
162 on was used to observe indentation of bovine corneal epithelium, endothelium, and stroma by a spheric
163 mal cells and scleral fibroblasts but not in corneal epithelium, endothelium, ciliary epithelium, cho
164 II collagen was immunolocalized to the mouse corneal epithelium, epithelial basement membrane, Descem
165 iffusion of RF across embryonic day 18 chick corneal epithelium ex vivo was monitored using confocal
166 sion in actively proliferating primary human corneal epithelium explant cultures, indicating that ALD
167 i were analyzed for their ability to bind to corneal epithelium, express MBP, and produce a cytopathi
169 protease (MIP133) mediates apoptosis of the corneal epithelium, facilitates corneal invasion, and de
171 ient by n-heptanol debridement of the entire corneal epithelium followed by surgical removal of 360 d
172 he antioxidant and prooxidant enzymes in the corneal epithelium, followed by the imbalance between me
173 inguishing the mode of keratin expression in corneal epithelium from that of all other stratified epi
174 ive hemidesmosomes, leading to detachment of corneal epithelium from the underlying stroma, which in
175 a constitutively active form of STAT3 in the corneal epithelium had abnormal features, including corn
176 ogether, these findings demonstrate that the corneal epithelium has functional TLR2 and -9, and that
177 ression is upregulated in regenerating human corneal epithelium, has antibacterial activity against o
179 d eyes (90%), revealing the presence of just corneal epithelium in 7 cases, just conjunctival epithel
180 bsequent intracellular bacterial load in the corneal epithelium in a contact lens infection model in
181 oth the proliferation and differentiation of corneal epithelium in a novel Krt12-rtTA/tet-O-FGF-7 dou
182 promotes differentiation and recapitulates a corneal epithelium in a three-dimensional raft culture m
183 contributes to the inflammatory responses of corneal epithelium in a TLR5-NF-kappaB signaling pathway
184 ght microscopy revealed clear healing of the corneal epithelium in all groups except for some cases i
185 of MMP-1, -3, -9, and -10 transcripts in the corneal epithelium in C57BL/6 mice, but had no effect on
186 LSCs are maintained and differentiated into corneal epithelium in healthy individuals and which key
187 ted beyond the very superficial layer of the corneal epithelium in mice with intact corneas even afte
189 ications for preventing cornification of the corneal epithelium in response to the hyperosmolar tear
190 copy showed that 46.2% of patients exhibited corneal epithelium in the central and peripheral cornea,
191 lts in a loss of hINV gene expression in the corneal epithelium in vivo and in cultured corneal epith
192 role of lipid rafts in PA internalization by corneal epithelium in vivo, in vitro, and after contact
196 ion only happened in the limbal, but not the corneal, epithelium in airlift, but not submerged, cultu
197 expression profile of connexins in the human corneal epithelium (in vivo) and in cultured primary cor
198 es, but showed irregularities underneath the corneal epithelium, in Bruch's membrane and in the iris.
199 were highly restricted in spread within the corneal epithelium, in the case of mutant 277 to only 4
204 The detection of the MUC5AC transcript in corneal epithelium is a more sensitive method to diagnos
205 rom neuroectoderm via the optic vesicle, the corneal epithelium is descended from surface ectoderm, w
213 The mucin-rich environment of the intact corneal epithelium is thought to contribute to the preve
214 membrane duplicating or insinuating into the corneal epithelium layer, or both, and the presence of h
218 rix, relative to matrix secreted by normoxic corneal epithelium, may be responsible for increased bac
219 ative cells), and cell morphologic features (corneal epithelium: multilayered polygonal and flat cell
221 show that conditional ablation of Srf in the corneal epithelium of a diseased Dstn(corn1) cornea resu
225 a-galactosidase induction was limited to the corneal epithelium of bitransgenic mice fed doxycycline.
228 role of TRIF in host inflammatory responses, corneal epithelium of C57BL/6, TLR3(-/-), TRIF(-/-), and
230 -mm diameter punch was placed on the abraded corneal epithelium of either untreated or cyclophosphami
231 ings demonstrate that nerve terminals in the corneal epithelium of mice and guinea pigs can be distin
233 Tissue-specific deletion of Pbx1 in the corneal epithelium of mice resulted in corneal dystrophy
234 or cervical ganglion occurred throughout the corneal epithelium of mice, but only in the basal epithe
236 marker of oxidative stress, in HCE cells and corneal epithelium of rats by immunofluorescent staining
238 ed by intracellular deposition of C3d in the corneal epithelium of vaccinated animals following chall
241 not affect adherence of trophozoites to the corneal epithelium or protect corneal epithelial or stro
243 ecific to the structure and functions of the corneal epithelium, particularly keratin 3 (KRT3) and ke
245 FIH-1 and provides new insight into how the corneal epithelium regulates its energy requirements.
247 rile 1.0 microM latex beads into the central corneal epithelium renders Chinese hamsters resistant to
248 Toll-like receptors (TLRs) expressed by the corneal epithelium represent a first line of host defens
249 ing tear instability and to test whether the corneal epithelium responds to transient hyperosmolar st
252 nts that develop irregular thickening of the corneal epithelium, similar to that observed in human co
254 acterize a Krt12-Cre knock-in mouse line for corneal epithelium-specific gene ablation and to analyze
255 eal epithelium biology are the mechanism for corneal epithelium stem cells to maintain the corneal ep
256 ear upregulates mannosylated proteins on the corneal epithelium, stimulates MIP133 secretion, and exa
259 ts reconstituted in vitro with normal BALB/c corneal epithelium survived indefinitely when placed in
261 erplay between bacteria, tear fluid, and the corneal epithelium that determines health as the usual o
262 r removal of a 2-mm diameter area of central corneal epithelium that did not directly injure the limb
263 can be sorted and expanded ex vivo to form a corneal epithelium that recovers function in an experime
264 role for ExsA in early interactions with the corneal epithelium that was not detectable with the conv
266 on of cornified envelope precursors in human corneal epithelium, their expression in human corneal ep
267 ean subbasal nerve density (P < 0.001), mean corneal epithelium thickness (P = 0.006), and mean corne
268 retinopexy was associated with a decrease in corneal epithelium thickness (r(2) = 0.42; P = 0.006) an
269 The authors used wound healing of mouse corneal epithelium to examine the role TGF-beta signalin
270 synthetic peptide, NC-1059, can modulate the corneal epithelium to increase the permeation of therape
271 er (K), preoperative anterior chamber depth (corneal epithelium to lens), and horizontal corneal diam
273 herpes simplex virus (HSV) travels from the corneal epithelium to sensory ganglia then returns to th
274 epth (ACD), defined as the distance from the corneal epithelium to the anterior lens surface; anterio
275 After a period of epithelial thinning, the corneal epithelium undergoes differentiation to an epide
277 receptor, the expression of proteins in the corneal epithelium was altered and wound healing was com
278 f NC-1059 peptide on RF diffusion across the corneal epithelium was concentration and time dependent.
279 ine-rich protein [SPRR]-2) expression by the corneal epithelium was evaluated by laser scanning confo
280 uthanatized at different time points and the corneal epithelium was immunocytochemically stained for
282 of this sensor, the permeability of a rabbit corneal epithelium was monitored by applying a solution
287 invasion was noted when the limbal, but not corneal, epithelium was recombined with the limbal strom
291 y, Akt signaling and glycogen content of the corneal epithelium were significantly decreased in c-kit
292 or cells to contribute fully not only to the corneal epithelium, where Pax6 is expressed at high leve
293 ephrin signaling proteins are present in the corneal epithelium, where their function remains unknown
294 e suprabasal and/or superficial cells of the corneal epithelium, whereas the K14 expression was restr
295 wer gammadelta T cells resident in unwounded corneal epithelium, which failed to increase in response
296 in sensory neurons supplying the guinea pig corneal epithelium, which have well-defined modalities i
297 itor cells (LSCs), and deficiency in LSCs or corneal epithelium--which turns cornea into a non-transp
298 Histological analysis revealed a stratified corneal epithelium with at least three layers in all PF-
300 ration of transparent, avascular, and stable corneal epithelium without neovascularization in central
WebLSDに未収録の専門用語(用法)は "新規対訳" から投稿できます。