戻る
「早戻しボタン」を押すと検索画面に戻ります。 [閉じる]

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 n (residual embryonic cells and transitional basal cells).
2 antly enriched for genes expressed in airway basal cells.
3 cell types, as well as six subpopulations of basal cells.
4 alveolar epithelial type II (AT2) or KRT5(+) basal cells.
5 cells, whereas basal cells divided only into basal cells.
6    H3N2 was also detected in rare goblet and basal cells.
7 d in reserve, and mitotically active globose basal cells.
8 pithelia derived from normal human bronchial basal cells.
9 located at the interface between luminal and basal cells.
10 that comprised about ten per cent of KRT5(+) basal cells.
11 i-ciliated and a layer of Keratin-5-positive basal cells.
12 l cells are molecularly distinct from Krt15- basal cells.
13 of several epithelia, but suppressed in p63+ basal cells.
14 inhibition allowed rapid expansion of airway basal cells.
15 entiation of airway progenitors into KRT5(+) basal cells.
16 clear halo was visible within the epithelial basal cells.
17 P include macrophages, alveolar type II, and basal cells.
18 2-HRAS* expression occurs primarily in supra-basal cells.
19 bnormally segregated to the apical cortex of basal cells.
20 ferentiate into luminal, neuroendocrine, and basal cells.
21                                     Lutheran/basal cell adhesion molecule (Lu/BCAM) promotes tumor ce
22 integrin Myospheroid, which is necessary for basal cell adhesion, is mislocalized in Sac1(ts) retinas
23  trachea during epithelial regeneration from basal cells after injury.
24  including principal cells, clear cells, and basal cells, along with associated support cells that in
25 M(+) luminal progenitors, which express both basal cell and luminal cell-enriched genes.
26 intercellular spaces (confirmed by CLE), and basal cell and papillary hyperplasia developed without s
27 cyte-predominant esophageal inflammation and basal cell and papillary hyperplasia without loss of sur
28    Also evaluated were changes in epithelial basal cell and papillary hyperplasia, surface erosions,
29                                              Basal cell and squamous cell carcinomas of the skin are
30 tnnb1 in the mesenchyme leads to the loss of basal cells and cartilage, concomitant with reduced tran
31 ferentiation of keratin 5-positive (Krt5(+)) basal cells and ectopic expression of squamous-like diff
32 s, identifies functional heterogeneity among basal cells and establishes a facile in vitro organoid m
33 ers differentiated from primary human airway basal cells and examined by advanced imaging.
34        PA200 was upregulated in hyperplastic basal cells and myofibroblasts of fibrotic lungs from pa
35 ter injury versus controls, including larger basal cells and nuclei, more persistent basal and ectopi
36  context-dependent functions, is produced by basal cells and restrains progenitor cell proliferation.
37 irmed that NOTCH2 maintains undifferentiated basal cells and restricts basal-to-ciliated differentiat
38 18.5, intermediate cells differentiated into basal cells and superficial cells.
39 en activating reserve stem cells (horizontal basal cells) and Neurogenin1 (+) immediate neuronal prec
40  an abundant product of normal mammary gland basal cells, and that alpha3(V) ablation in a mouse mamm
41 ks cyclophosphamide-induced intermediate and basal cell apoptosis, likely by phosphorylated AKT, and
42 l cell loss, KGF suppressed intermediate and basal cell apoptosis, likely via AKT signaling.
43  and basal cell development, Nkx2.1(+)p63(+) basal cells are co-present with cartilage nodules in Shh
44 train secretory differentiation.Conclusions: Basal cells are dynamically regulated in disease and are
45                  Using RNA-seq, we show that basal cells are extraordinarily transcriptionally dynami
46 riptional profiling demonstrated that Krt15+ basal cells are molecularly distinct from Krt15- basal c
47 ing experiments showed that CC10(+), but not basal, cells are the cells of origin of LSCC in KF mice.
48 club cells, and was absent from ciliated and basal cells as detected via immunohistochemistry.
49 ts from a local increase in BMP5 activity in basal cells as shown by the impaired self-renewal capaci
50 led cells include both proliferative globose basal cells as well as immature OSNs exhibiting the hall
51      Canonical alpha6beta4C expressed in all basal cells, as expected, while alpha6beta4E expressed w
52 T-mTORC1-NFkappaB-MMP9 pathway activation in basal cells, as well as systemic isotonicity, prevents m
53 mammary and prostate glands, are composed of basal cells (BCs) and luminal cells (LCs)(1,2).
54              To identify signals controlling basal cell behavior we screened factors that alter their
55 rom the neural crest, with the secretory and basal cells being of urogenital sinus origin.
56  defective regeneration, fewer cells, larger basal cell bodies and nuclei, paradoxical increases in p
57  luminal cells and an excessive expansion of basal cells, both in vivo and in vitro The inability to
58 sing cells with a decreased number of CK5(+) basal cells but an increase of CK8(+) luminal tumorigeni
59 teins not previously identified in olfactory basal cells but known to be essential for self-renewal i
60 ssay, our group previously demonstrated that basal cells can serve as efficient targets for transform
61                                              Basal cell cancers (BCCs) are characterized by upregulat
62  airway-like organoids possessing functional basal cells capable of clonal expansion and multilineage
63                                  Strikingly, basal cell carcinogenesis only occurs when Atp1b1a funct
64 3%]), cutaneous SCC (11 of 21 tumors [52%]), basal cell carcinoma (3 of 4 tumors [75%]), and ACC (5 o
65 s in human skin biopsy samples diagnosed for basal cell carcinoma (BCC) and compared with healthy ski
66 mance of this methodology on differentiating basal cell carcinoma (BCC) and squamous cell carcinoma (
67        Keratinocyte cancers (KCs), including basal cell carcinoma (BCC) and squamous cell carcinoma (
68 f nonmelanoma skin cancer (NMSC), defined as basal cell carcinoma (BCC) and squamous cell carcinoma (
69 tance: Keratinocyte cancers (KCs), including basal cell carcinoma (BCC) and squamous cell carcinoma (
70 ng DSCMs before and after training to detect basal cell carcinoma (BCC) and squamous cell carcinoma (
71                                              Basal cell carcinoma (BCC) and squamous cell carcinoma (
72 sive skin neoplasm with the features of both basal cell carcinoma (BCC) and squamous cell carcinoma (
73 in cancers using a population-based study of basal cell carcinoma (BCC) and squamous cell carcinomas
74                                              Basal cell carcinoma (BCC) are common in this age group
75  expression and its clinical significance in basal cell carcinoma (BCC) are unknown to date.
76                   The effect of UVR on human basal cell carcinoma (BCC) epidemiology is complex-the i
77 ociation of dietary pattern with the risk of basal cell carcinoma (BCC) is little understood and has
78                                              Basal cell carcinoma (BCC) is the most common cancer wor
79                                              Basal cell carcinoma (BCC) is the most common type of sk
80  published squamous cell carcinoma (SCC) and basal cell carcinoma (BCC) nontransplant GWAS.
81                                              Basal cell carcinoma (BCC) of the skin is the most commo
82 r calcium supplementation alters the risk of basal cell carcinoma (BCC) or invasive cutaneous squamou
83 s between cigarette smoking and incidence of basal cell carcinoma (BCC) or squamous cell carcinoma (S
84 the cancer-associated microRNA-21 (miR21) in basal cell carcinoma (BCC) skin tumors.
85 itor vismodegib is FDA approved for advanced basal cell carcinoma (BCC), and shows promise in clinica
86  a new type of targeted therapy for advanced basal cell carcinoma (BCC), and their long-term effects,
87 he INTU gene is aberrantly elevated in human basal cell carcinoma (BCC), coinciding with increased pr
88  cutaneous squamous cell carcinoma (SCC) and basal cell carcinoma (BCC), in part as a result of immun
89 risk estimates to evaluate the risks of SCC, basal cell carcinoma (BCC), keratinocyte cancers (KCs) o
90  Importance: Rates of skin cancer, including basal cell carcinoma (BCC), the most common cancer, have
91                                              Basal cell carcinoma (BCC), the most common human cancer
92 us cell carcinoma, and a superficial type of basal cell carcinoma (BCC).
93 moothened (SMO) inhibitor-treated metastatic basal cell carcinoma (BCC).
94 icated for the treatment of locally advanced basal cell carcinoma (laBCC), with an objective response
95                                              Basal cell carcinoma (n = 8, 50%) was the most common ey
96                    Tests on prostate cancer, basal cell carcinoma and breast cancer metastases to axi
97               Hh signaling is upregulated in basal cell carcinoma and medulloblastoma and Hh pathway
98 ns in Smoothened (SMO) have been reported in basal cell carcinoma and medulloblastoma, but are largel
99 ing leads to several malignancies, including basal cell carcinoma and paediatric medulloblastoma(2).
100  Hedgehog signaling, where Ptch1 loss causes basal cell carcinoma and Ptch1;Ptch2 loss disrupts skin
101 de prior CLL for squamous cell carcinoma and basal cell carcinoma and reduced-intensity conditioning
102 ared with surgery for superficial or nodular basal cell carcinoma at low-risk sites in our noninferio
103                                              Basal cell carcinoma in the very elderly were more commo
104 en's Hospital Oakland Research Institute and Basal Cell Carcinoma Nevus Syndrome Life Support Network
105                                Pretransplant basal cell carcinoma of the skin and male genital cancer
106 ed a diagnosis of and were being treated for basal cell carcinoma or squamous cell carcinoma (cases)
107        Multiple hereditary infundibulocystic basal cell carcinoma syndrome (MHIBCC) is a rare genoder
108 icial basal cell carcinoma, 6 weeks; nodular basal cell carcinoma, 12 weeks) or excisional surgery (4
109 o imiquimod 5% cream once daily (superficial basal cell carcinoma, 6 weeks; nodular basal cell carcin
110                                           In basal cell carcinoma, application of scATAC-seq reveals
111 er, comprising cutaneous squamous (cSCC) and basal cell carcinoma, is the most common malignancy in t
112 rial Fibrillation, High Cholesterol, Asthma, Basal Cell Carcinoma, Malignant Melanoma, and Heart Atta
113                 His medical history included basal cell carcinoma, rheumatoid arthritis, and Barrett
114                                              Basal cell carcinoma, solar keratosis, and colorectal ca
115 immunosuppressed = 8.9 years), 135 (27%) had basal cell carcinoma, squamous cell carcinoma or Bowen's
116 , the most common pediatric brain tumor, and basal cell carcinoma, the most common cancer in the Unit
117 tate and lung adenocarcinoma to melanoma and basal cell carcinoma.
118 um antibodies and cSCC or between betaPV and basal cell carcinoma.
119 elioma, meningioma, renal cell carcinoma and basal cell carcinoma.
120 n the proliferation of colorectal cancer and basal cell carcinoma.
121 t (1 malignancy) also developed a periocular basal cell carcinoma.
122 ncluding medulloblastoma, ameloblastoma, and basal cell carcinoma.
123  use of SMO antagonists for the treatment of basal cell carcinoma.
124 ceptor-7 agonist currently used for treating basal cell carcinoma.
125 unds have been approved for use in Hh-driven basal cell carcinoma.
126 than 200,000 single cells in human blood and basal cell carcinoma.
127 inoma and reduced-intensity conditioning for basal cell carcinoma.
128 uding actinic keratoses and Bowen's disease; basal cell carcinoma; benign keratinocytic lesions inclu
129  procaspase-8) in association with cutaneous basal-cell carcinoma (BCC) and linked to a germline SNP
130 ell carcinoma tumour burden and prevents new basal-cell carcinoma growth in patients with basal-cell
131 ular oedema in six (2%) versus six (1%), and basal-cell carcinoma in 14 (4%) versus nine (2%).
132                           The mean number of basal-cell carcinoma lesions at week 73 was reduced from
133 erruption of treatment, which is followed by basal-cell carcinoma recurrence.
134  the smoothened inhibitor vismodegib reduces basal-cell carcinoma tumour burden and prevents new basa
135                           Vismodegib reduces basal-cell carcinoma tumour burden in patients with basa
136  is approved for use in adults with advanced basal-cell carcinoma.
137  confirmed, including 9 melanomas (0.5%), 37 basal cell carcinomas (1.9%), and 1 squamous cell carcin
138 way is aberrantly activated in a majority of basal cell carcinomas (BCC).
139  1.41 (1.19-1.67), and 1.57 (0.64-3.86), for basal cell carcinomas (BCCs) and squamous cell carcinoma
140                                              Basal cell carcinomas (BCCs) depend on Hedgehog (Hh)/Gli
141 herein affected individuals develop multiple basal cell carcinomas (BCCs) of the skin.
142                                              Basal cell carcinomas (BCCs) rely on Hedgehog (HH) pathw
143                                        Human basal cell carcinomas (BCCs) very frequently carry p53 m
144 he risk of skin cancer, including melanomas, basal cell carcinomas (BCCs), and squamous cell carcinom
145  maintain maximal Hedgehog pathway output in basal cell carcinomas (BCCs), and we have previously sho
146 sting of squamous cell carcinomas (SCCs) and basal cell carcinomas (BCCs), are the most common human
147 lly all sporadic and Gorlin syndrome-related basal cell carcinomas (BCCs), with loss of function of P
148 ) have a greater risk of developing numerous basal cell carcinomas (BCCs).
149 ) have a greater risk of developing numerous basal cell carcinomas (BCCs).
150  = 9.8; 95% confidence interval = 7.7-12.3), basal cell carcinomas (incidence rate ratio = 2.5; 95% c
151 d specificity of 89-99% for the detection of basal cell carcinomas and can potentially serve as a rap
152 e reveals that dermoscopy can help delineate basal cell carcinomas before surgical removal but that i
153 which numerous indolent, well-differentiated basal cell carcinomas develop primarily on the face and
154                        In skin, premalignant basal cell carcinomas form 'buds', while invasive squamo
155 t of the signature genes for human prostatic basal cell carcinomas in the above prostate tumors.
156 odalities to help delineate tumor margins of basal cell carcinomas in the setting of Mohs micrographi
157 nd demonstrate that BSCs likely originate as basal cell carcinomas that partially squamatize through
158                             Risk factors for basal cell carcinomas were chronic lymphocytic leukemia
159 n lesions (8 nevi, 8 seborrheic keratoses, 7 basal cell carcinomas, 7 melanomas, 4 hemangiomas, 4 der
160 ceous differentiation, including a subset of basal cell carcinomas.
161  UVR in sunlight causes mutations that drive basal cell carcinomas.
162 nderlie the development of infundibulocystic basal cell carcinomas.
163 as well as renal, breast, lung, gastric, and basal cell carcinomas.
164  on the incidence of new surgically eligible basal-cell carcinomas after 3 months of treatment.
165 y, had serious adverse events, including two basal-cell carcinomas and one major cardiovascular adver
166 ndrome with at least ten surgically eligible basal-cell carcinomas at the Children's Hospital Oakland
167 baseline in the number of clinically evident basal-cell carcinomas at week 73.
168 mean reduced rate of new surgically eligible basal-cell carcinomas compared with patients randomly as
169 d the development of new surgically eligible basal-cell carcinomas compared with placebo (0.4 [SD 0.2
170                Fewer new surgically eligible basal-cell carcinomas developed in patients receiving vi
171 ing (mean 0.6 [0.72] new surgically eligible basal-cell carcinomas per patient per year vs 1.7 [1.8]
172 lacebo (0.4 [SD 0.2] new surgically eligible basal-cell carcinomas per patient per year vs 30.0 [7.8]
173 (n=15; two [SD 0.12] new surgically eligible basal-cell carcinomas per patient per year vs 34 [1.32]
174 er year vs 34 [1.32] new surgically eligible basal-cell carcinomas per patient per year, p<0.0001).
175 er year vs 1.7 [1.8] new surgically eligible basal-cell carcinomas per patient per year, p<0.0001).
176 r year vs 30.0 [7.8] new surgically eligible basal-cell carcinomas per patient per year, p<0.0001).
177                       Patients with multiple basal-cell carcinomas, including those with basal-cell n
178 al, we enrolled adult patients with multiple basal-cell carcinomas, including those with basal-cell n
179 onfirmed and at least six clinically evident basal-cell carcinomas.
180 ib dosing regimens in patients with multiple basal-cell carcinomas.
181 long-term regimens in patients with multiple basal-cell carcinomas.
182 ehog signalling underlies the development of basal-cell carcinomas.
183 junctions and increased proliferation in the basal cell compartment.
184 ike engulfment and entrainment of underlying basal cells, constituting a tumor-suppressive effect.
185 OPN expression was up-regulated in submerged basal cells cultures exposed to cigarette smoke (CS) ext
186 t with the association between cartilage and basal cell development, Nkx2.1(+)p63(+) basal cells are
187 overexpression of LXN in prostate epithelial basal cells did not affect cell fate, LXN overexpression
188 pressing epithelial progenitors and promotes basal cell differentiation in the cartilaginous airways.
189 ells still gave rise to basal cells, whereas basal cells divided only into basal cells.
190 in in vivo leads to misorientation of apical-basal cell division in nephron tubules.
191  that beta-catenin signaling is activated in basal cells during early pregnancy, and demonstrate that
192  cells and tested their potential to produce basal cells during tumorigenesis.
193 o had (less severe) regeneration defects and basal cell endoreplication 3 days after cyclophosphamide
194      Fgfr2KO mice had evidence of pathologic basal cell endoreplication associated with absent phosph
195 er cyclophosphamide exposure from pathologic basal cell endoreplication.
196 cible developmental trajectory: initiated in basal cells exhibiting an epithelial-to-mesenchymal tran
197                                    Prostatic basal cells express p63 and are able to differentiate in
198 cally constricting cells to undergo aberrant basal cell extrusion and cell intercalation.
199 tion period of 6 hours, but we observed that basal cells flattened to cover the basement membrane.
200 to 6 hours and apoptosis in intermediate and basal cells from 4 to 24 hours was observed after cyclop
201                Consistent with this profile, basal cells functionally exhibit intrinsic stem-like and
202 Cs) and some among the population of globose basal cells (GBCs) are stem cells, but the two types pla
203                   Of clinical relevance, the basal cell gene-expression profile is enriched in advanc
204                        Although the prostate basal cells have been shown to directly generate tumor c
205             Type IV cells (nonproliferative "basal cells") have a nucleus in the lower quarter of the
206                               The horizontal basal cell (HBC) is a dormant tissue-specific stem cell
207                              Both horizontal basal cells (HBCs) and some among the population of glob
208 pairs proliferation of progenitor horizontal basal cells (HBCs) and subsequent neuronal differentiati
209 of two stem cell populations: the horizontal basal cells (HBCs), which are quiescent and held in rese
210 ssion is activated in a subset of horizontal basal cells (HBCs), which repopulate all microvillar cel
211 eed to better understand the contribution of basal cell hyperplasia and associated mucosecretory dysf
212 on of epithelial eosinophilia in addition to basal cell hyperplasia and vascular remodeling.
213 d differentiation of human iPSCs into airway basal cells ("iBCs"), a population resembling the stem c
214 ohistochemistry showed an increase in airway basal cells in BAL and tissues of IPF compared with cont
215 ortality unmasks a potential role for airway basal cells in IPF.
216                                              Basal cells in pseudostratified epithelia display a sing
217 initiate actin polarization and migration of basal cells in their native epithelial context in vivo,
218 ovide evidence that the p63(+)KRT5(+)KRT7(+) basal cells in this zone are the cells of origin for mul
219 e alters the differentiation of small airway basal cells in vitro.
220 nar respiratory epithelial cells, but not of basal cells, in both ex vivo respiratory mucosal explant
221                             Secretory primed basal cells include an overlapping molecular signature w
222 Measurements and Main Results: We found that basal cells included multipotent and secretory primed su
223 molecular and functional phenotype of airway basal cells, including the capacity to self-renew or und
224 that stimulated differentiation of prostatic basal cells into transformation-preferable luminal cells
225  indicating that the function of the corneal basal cells is retained.
226 ing, a known negative regulator of embryonic basal cells, is also necessary for maintenance of the pr
227 uency of marked atypia on melanocytes in the basal cell layer; it presented with lower ABCD Total Der
228 es, ISH and qPCR revealed Ddr1 expression in basal cell layers of the oral epithelia and in immune ce
229 nactivation of these genes using Ad-K5cre in basal cells leads to the development of SCLC, thus diffe
230 be replicated using LAE and SAE immortalized basal cell lines derived from healthy nonsmokers.Conclus
231      Here we show that AR is dispensable for basal cell maintenance, but is cell-autonomously require
232 lls, reduced proportions of SAE ciliated and basal cells, markedly abnormal SAE and alveolar macropha
233 nal characteristics, such as p63(+) cells (a basal-cell marker) showing luminal-like morphology, or c
234            The abnormal epithelium expressed basal cell markers, including tumor protein 63, cytokera
235                       In response to primary basal cell medium, NKX2-1(GFP+)/TP63(tdTomato+) cells di
236 on of membrane pores through both apical and basal cell membrane layers that reseal along their later
237 ither bulk or FACS-sorted single luminal and basal cells), metastatic prostate cancer lesions and cir
238 ost BCCs are sporadic, rare individuals with basal cell nevus syndrome (BCNS) harbor germline defects
239                                Patients with basal cell nevus syndrome (BCNS) have a greater risk of
240                    Importance: Patients with basal cell nevus syndrome (BCNS) have a greater risk of
241 nical follow-up time, immunosuppression, and basal cell nevus syndrome status.
242 .89-16.97; P < .001), accounting for age and basal cell nevus syndrome status.
243 ls, without other features characteristic of basal cell nevus syndrome.
244 ntrolled, phase 2 trial in patients with the basal-cell nevus (Gorlin) syndrome indicating that the s
245  basal-cell carcinomas, including those with basal-cell nevus (Gorlin) syndrome, need extended treatm
246 l we enrolled patients aged 35-75 years with basal-cell nevus syndrome with at least ten surgically e
247 nt assignment was stratified by diagnosis of basal-cell nevus syndrome, geographical region, and immu
248  basal-cell carcinomas, including those with basal-cell nevus syndrome, who had one or more histopath
249 basal-cell carcinoma growth in patients with basal-cell nevus syndrome.
250 ell carcinoma tumour burden in patients with basal-cell nevus syndrome.
251 lude an overlapping molecular signature with basal cells obtained from the distal lung tissue of IPF
252  identified 581 SMNs (excluding squamous and basal cell of skin) in 499 individuals.
253  polarity remodeling occurs in proliferative basal cells of mammalian epidermis whereupon cell divisi
254  we found that deletion of Fgfr1 or Spry2 in basal cells of the adult mouse trachea caused an increas
255 t primary cilia are predominantly present on basal cells of the mouse corneal epithelium (CE) through
256 3a mRNA and GFP are expressed within globose basal cells of the olfactory and vomeronasal epithelium
257 discuss potential cells of origin, including basal cells of the squamous epithelium, cells of esophag
258                                              Basal cells of WTs and epidermoid cells of MECs were str
259  that luminal cells are capable of producing basal cells on activation of either polyoma middle T ant
260 ession in a subset of luminal cells and rare basal cells opposes BMP7 to promote ductal branching.
261 re also described that promote enrichment of basal cells organized into multiple layers surrounding a
262 re able to differentiate into AT1 cells, and basal cell organoids developed lumens lined with differe
263                                Modulation of basal cell plasticity may represent a relevant target fo
264        The roles of Scrib and Lgl1 in apical-basal cell polarity have been studied extensively, but l
265  morula stage, outer cells acquire an apical-basal cell polarity, with expression of atypical protein
266 d that the Krt15 promoter marks a long-lived basal cell population able to self-renew, proliferate, a
267 is highly expressed in MaSC-enriched mammary basal cell population and in mammary tumors, and is regu
268 to show that this squamous-columnar junction basal cell population serves as a source of progenitors
269 onal expansion of single human cells and for basal cell populations from epithelial tissues from all
270 ll-cell communication modeling suggests that basal cell populations serve as crucial signaling hubs t
271 ables robust expansion of primary epithelial basal cell populations.
272                                  Strikingly, basal cells preferentially express gene categories assoc
273 ressed in both basal and luminal cells, with basal cells preferentially expressing acetylated Klf5.
274 echanistically, ANO1-dependent regulation of basal cell proliferation was associated with modulation
275 other receptor tyrosine kinases and restrain basal cell proliferation.
276                                              Basal cells provide structural and contractile support,
277 e population, whereas Types II, III, and IV (basal cells) represent 19, 15, and 14%, respectively.
278 FGF receptor 2 (FGFR2) in adult mouse airway basal cells results in self-renewal and differentiation
279 ful cultures were prepared using adult mouse basal cells selected for expression of c-KIT.
280 expression of a key transcription factor for basal cell self-renewal and differentiation: SOX2.
281 f AR and SOX2 in the expression of prostatic basal cell signature genes.
282 tocrit levels, and a higher incidence of non-basal-cell skin cancers than placebo.
283 M5B is involved in regulation of luminal and basal cell specific gene expression in breast cancers.
284                       We show that in airway basal cells, SPRY2 is post-translationally modified in r
285 tinct stages in the progression from globose basal cell stem cells to fully mature OSNs.
286 toward the expansion of the secretory primed basal cell subset in IPF.
287 used to investigate functional properties of basal cell subtypes.Measurements and Main Results: We fo
288 so leads to significantly reduced numbers of basal cells, supporting the importance of Wnt/Fgf crosst
289 uamous epithelium comprised of proliferative basal cells that differentiate while migrating toward th
290 lly coupled to the basal layer by peripheral basal cells that extend apically and centripetally while
291              The GBC population includes the basal cells that proliferate in the uninjured OE and is
292 atifying divisions, allowing flexibility for basal cells to adapt to the needs of the developing tiss
293 cate the long axis orientation of interphase basal cells to neighbouring basal mitoses so that they a
294  as a transcriptional regulator in prostatic basal cell tumors.
295 erial contain the differentiated luminal and basal cell types, whereas organoids derived from prostat
296 barrier, fail to mature in Pparg mutants and basal cells undergo squamous-like differentiation.
297                           Presence of airway basal cells was tested by immunohistochemistry and flow
298                                 Human airway basal cells were differentiated and cultured at air-liqu
299 ow but intermediate cells still gave rise to basal cells, whereas basal cells divided only into basal
300 idermis revealed a patterned distribution of basal cells with pulsatile ERK activity, and down-regula

 
Page Top