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1 uamous cell carcinoma, thyroid, adrenal, and parotid.
2 tivation, consistent with reports from mouse parotid.
3 tially to the deactivation of the current in parotid.
4 ts and acetylcholine-evoked secretion in the parotid.
5 anes of secretory granules isolated from rat parotids.
6 069 +/- 0.022 mSv/MBq), and salivary glands (parotids, 0.031 +/- 0.011 mSv/MBq; submandibular, 0.061
7 ges obtained after MSG administration in the parotids (24% +/- 14%, P = 0.001), submandibular glands
8 ates of unstimulated whole (35%), stimulated parotid (47%), unstimulated submandibular/sublingual (23
9 es including 14 stomach, 11 lung, 7 orbit, 7 parotid, 5 thyroid, 5 lacrimal gland, 3 small intestine,
10                                           In parotid, a rapid global Ca(2+) signal was invariably ind
11   The P2X7R-mediated current was measured in parotid acinar and duct cells of wild type and P2X7R-/-
12                                 Here we used parotid acinar and duct cells to reveal the unique cell-
13 tiated apical [Ca(2+)](i) clearance in mouse parotid acinar cells and apical PMCA activity in Par-C10
14 ased the rate of oxygen consumption (QO2) of parotid acinar cells and PC12 cells.
15 rpolarization-activated chloride currents in parotid acinar cells and, as described previously, displ
16 nnels in red blood cells, T lymphocytes, and parotid acinar cells are indeed encoded by the Kcnn4 gen
17 Ca(2+)](i) clearance in the apical region of parotid acinar cells because of a dynamic translocation
18 ctifier chloride channel (Cl(ir)) from mouse parotid acinar cells by external protons (H(+)(o)) using
19 dy-state activation of BK channels in native parotid acinar cells by only 6 mV.
20                                              Parotid acinar cells exhibit rapid cytosolic calcium sig
21 ases in oxygen consumption) were measured in parotid acinar cells exposed to tyrosine kinase inhibito
22                                              Parotid acinar cells express two types of Ca(2+)-activat
23 re of normal appearance and fertility, their parotid acinar cells expressed no IK channels, and their
24                                     However, parotid acinar cells from Clcn2(-/-) mice recovered volu
25 anide-sensitive Cl(-) influx was observed in parotid acinar cells from mice lacking NKCC1.
26                                              Parotid acinar cells from these animals lacked maxi-K ch
27                           The BK channels in parotid acinar cells have a much more hyperpolarized vol
28                         Thus, stimulation of parotid acinar cells in Ca2+ -free medium with 0.5 micro
29 CO(3)(-) exchanger activity was increased in parotid acinar cells isolated from knockout mice suggest
30 (+) exchanger expression was examined in the parotid acinar cells of Nhe1(-/-) and Nhe2(-/-) mice, bo
31 arly, immunofluorescence of acutely isolated parotid acinar cells showed that the regulatory subunit
32                 Exposure of freshly isolated parotid acinar cells to rottlerin and FCCP reduced cellu
33                     These findings show that parotid acinar cells use low capacity, high sensitivity
34 To address these concerns, we profiled mouse parotid acinar cells using live-cell imaging to follow t
35 on sites on the alpha1 subunit in native rat parotid acinar cells using tandem mass spectrometry and
36  Ca(2+) signaling and cAMP pathways in human parotid acinar cells was investigated.
37 P(3) receptors, the Cl(-) current density of parotid acinar cells was more than four-fold greater tha
38 muscarinic receptor-induced acidification in parotid acinar cells was of a similar magnitude (0.25 +/
39 dly affect a variety of nuclear processes in parotid acinar cells while facilitating efficient fluid
40                                     In human parotid acinar cells, carbachol stimulation evoked incre
41            These data indicate that in human parotid acinar cells, in addition to modulation of Ca(2+
42 - channels previously characterized in mouse parotid acinar cells, nor is it dependent on P2 nucleoti
43  gain further insight into I(ATPCl) in mouse parotid acinar cells, we investigated the effects of ATP
44 as localized to the basolateral membranes of parotid acinar cells, whereas expression was not detecte
45 study demonstrates CICR in the non-excitable parotid acinar cells, which resembles the mechanism desc
46 or ligand carbachol in freshly dispersed rat parotid acinar cells.
47 MCA4 was localized to the apical membrane of parotid acinar cells.
48 TPase (PMCA) in a Ca(2+)-dependent manner in parotid acinar cells.
49 atial regulation of [Ca(2+)](i) clearance in parotid acinar cells.
50 ways from the maturing secretory granules in parotid acinar cells.
51 role in the storage of secretory proteins in parotid acinar cells.
52 mpaired in Kcnn4 null mice but was normal in parotid acinar cells.
53 -trisphosphate receptors (InsP(3)R) in mouse parotid acinar cells.
54 2X(4)R and P2X(7)R mRNA and protein in human parotid acinar cells.
55  temporal properties of [Ca2+]i signaling in parotid acinar cells.
56 icted [Ca2+]i signals were never observed in parotid acinar cells.
57  cAMP regulates Ca(2+) clearance pathways in parotid acinar cells.
58 oupling in a variety of cell types including parotid acinar cells.
59          This hypothesis was tested in mouse parotid acinar cells.
60 her TMEM16A or TMEM16B as well as from mouse parotid acinar cells.
61  and P2X(7)R activation evokes exocytosis in parotid acinar cells.
62 reatic lipase knockouts are lethal, exocrine parotid acini lacking lipases were used to verify the re
63  levels is due to activation of AC8 in mouse parotid acini, and strongly support a role for AC5/6 in
64 2+) entry stimulates cAMP synthesis in mouse parotid acini, suggesting that one of the Ca(2+)-sensiti
65 coupling Ca(2+) signals to cAMP synthesis in parotid acini.
66       Water permeability decreased by 65% in parotid and 77% in sublingual acinar cells from Aqp5(-)/
67 ffects the salivary glands and in particular parotid and cervical lymph nodes.
68  Ca(2+) sensitivity of the Cl(-) channels in parotid and pancreas was determined from the [Ca(2+)]-cu
69 strated the presence of ARC channels in both parotid and pancreatic acinar cells and shown that, agai
70                                           In parotid and pancreatic acinar cells, changes in [Ca(2+)]
71  (SMSL) saliva as well as citrate-stimulated parotid and SMSL saliva were measured in 399 subjects.
72       In contrast, the water permeability in parotid and sublingual acinar cells isolated from Aqp5(-
73 dy was to determine variations in stimulated parotid and submandibular flow rates over 6 hours and to
74  the immature acinar cells in developing rat parotid and submandibular glands and are also products o
75 imed to report a RCC case with metastasis to parotid and submandibular glands that has the same sonog
76 ulated whole and stimulated glandular (i.e., parotid and submandibular) saliva flow rate and composit
77 ve properties to blots of SDS-PAGE-separated parotid and submandibular-sublingual (SM-SL) saliva.
78 ed pattern observed for protein secretion in parotid and submandibular/sublingual glands, and that th
79                                              Parotid and submandibular/sublingual saliva samples and
80 tes and antimicrobial proteins in stimulated parotid and submandibular/sublingual saliva were determi
81 ns of appropriate agonists (carbachol in the parotid, and both carbachol and cholecystokinin in the p
82  by placing regions of interest on lacrimal, parotid, and submandibular glands; left ventricle; liver
83                                              Parotid biopsies from four non-pSS patients served as co
84 NA transcripts expressing IGHV3 genes in all parotid biopsies.
85 minimal effect on steady-state activation of parotid BK channels, it produced an approximate 2-fold s
86                     This was not because the parotid BK isoform (parSlo) is inherently insensitive to
87 roteases by all agents was also inhibited in parotid C5 cells expressing PKCdeltaKD.
88   DNA fragmentation was blocked up to 71% in parotid C5 cells infected with the PKCdeltaKD adenovirus
89                Induction of apoptosis in rat parotid C5 cells produced catalytic domain polypeptides
90 arotid cells from PKCdelta(-/-) cells and in parotid C5 cells, which express a dominant inhibitory mu
91 ree cDNA clones were isolated from a porcine parotid cDNA library.
92 uced activation of p53 is similar in primary parotid cells and parotid glands from PKCdelta(+/+) and
93  amino-terminal kinase is reduced in primary parotid cells from PKCdelta(-/-) cells and in parotid C5
94                                      Primary parotid cells from PKCdelta(-/-) mice are defective in m
95                           Notably, in native parotid cells isoproterenol enhanced the carbachol-promo
96 8 in Ca(2+) stimulation of cAMP synthesis in parotid cells, acini were isolated from AC1 mutant (AC1-
97                                           In parotid cells, this was distinct from the effects of the
98                        We propose that mouse parotid Cl(ir) current has a bimodal dependence on the e
99 bsorbed dose (r = 0.62), and SUV(max) of the parotids correlated with absorbed dose (r = 0.67).
100                                          The parotid dose also reduced with increasing body mass and
101                                     The mean parotid dose was also reduced with increasing body mass
102                These results suggest that in parotid duct cells apical NHE2 and NHE3 do not play a ma
103  RNA sequencing to map the transcriptomes of parotid epithelial cells.
104  initiate fluid secretion in salivary gland (parotid) epithelial cells.
105 ve Car2.Ae2 HCO(3)(-) transport metabolon in parotid exocrine cell function.
106 he correlation between any pair of the three parotid fat content measurement methods.
107                                          The parotid fat contents measured with the three methods wer
108                        The means of measured parotid fat contents revealed significant differences (P
109 t squares (IDEAL) method were used to derive parotid fat contents.
110                             Success rates in parotid fat measurements by using T1, T2, and IDEAL meth
111 DEAL method provided a high success rate for parotid fat measurements, even in subjects with metallic
112 neity of fat saturation to determine whether parotid fat quantification was successful, with the succ
113 afe and transfer of the hAQP1 cDNA increased parotid flow and relieved symptoms in a subset of subjec
114  negative effect of a high-sucrose diet on a parotid function involved in the control of intradentina
115  play an important role in the regulation of parotid function.
116 ubjects for several organ systems, including parotid gland (50% vs. 3%), tongue (53% vs. 10%), and lu
117 mice following delivery of the vector to the parotid gland (PTG), the submandibular gland (SMG) or to
118 nd amylase secretion (16-93%) from, isolated parotid gland acinar cells.
119  IL14alphaTG mice, but they lacked the later parotid gland and lung injury.
120  data for the largely understudied embryonic parotid gland as compared with the submandibular gland,
121  dynamic contrast-enhanced MR imaging of the parotid gland at 1.5 T.
122 r players and pathways that are relevant for parotid gland biology.
123 very of novel molecular players important in parotid gland biology.
124 at the stimulation of amylase secretion from parotid gland cells by NaF may be mediated by an increas
125 timulate amylase secretion from isolated rat parotid gland cells.
126                                          The parotid gland contributes a variety of secretory protein
127              In the present work we used the parotid gland duct which expressed Slc26a4 and Slc26a6 a
128      The fluid-secreting acinar cells of the parotid gland express both IK and BK channels, raising q
129                          For normal tissues, parotid gland factors were 6.7, 9.4, 13.3, and 19.3 Gy p
130                          For normal tissues, parotid gland factors were 6.7, 9.4, 13.3, and 19.3 Gy p
131                               The stimulated parotid gland fluid secretion rate was normal, but the s
132 l solute movement led us to hypothesize that parotid gland function(s) may have a role in regulating
133                                            A parotid gland hormone that stimulates intradentinal flui
134 A transfer to a single previously irradiated parotid gland in 11 subjects using an open label, single
135      Acetylcholine-evoked secretion from the parotid gland is substantially potentiated by cAMP-raisi
136 esting secretion of salivary proteins by the parotid gland is sustained in situ between periods of ea
137                                          The parotid gland is the mostly affected site among major sa
138             Based on these observations, the parotid gland kinase may be related to other Golgi-local
139 y and accurately differentiate epitopes from parotid gland N-glycans and milk oligosaccharides based
140 ultiple compensatory changes in the exocrine parotid gland of Nhe1(-/-) mice that together attenuate
141 ound (US) with painful swelling in the right parotid gland region.
142  hDF-EpiSC-loaded native de-cellularized rat parotid gland scaffolds into the renal capsule of nude m
143  correlated with decreased submandibular and parotid gland sizes.
144                                              Parotid gland swelling appeared to be the sine qua non o
145 l transcripts correlated with viral loads in parotid gland tissue and saliva.
146 systems biology approach was used to analyze parotid gland tissue samples obtained from patients with
147              Furthermore, the ability of the parotid gland to conserve NaCl was abolished in NKCC1-de
148 vation of p53 is required and sufficient for parotid gland transformation in the presence of activate
149 In contrast to the dramatic effect of p53 in parotid gland transformation, p53 loss has little effect
150 thyroid carcinoma, basal cell carcinoma, and parotid gland tumor, and 68.5% +/- 6.4% for those with n
151 [SIR] 52.3), non-Hodgkin lymphoma (SIR 8.3), parotid gland tumors (SIR 33.4), thyroid cancer (SIR 13.
152 mice heterozygous for a p53 deletion develop parotid gland tumors and loose their wild type p53 allel
153 accompanied by the down regulation of p21 in parotid gland tumors but not breast tumors.
154 the risk of meningioma, acoustic neuroma, or parotid gland tumors in relation to mobile phone use.
155                                          The parotid gland tumors were aneuploid and demonstrated inc
156 th the risks of brain, acoustic neuroma, and parotid gland tumors.
157          AdhAQP1 vector delivery to a single parotid gland was safe and transfer of the hAQP1 cDNA in
158 inductive site of the mucosal immune system (parotid gland) become polyclonal in piglets reared germf
159 dings included gross enlargement of the left parotid gland, a focal lesion in the right parotid gland
160 t parotid gland, a focal lesion in the right parotid gland, and cervical lymphadenopathy.
161 f the salivary glands, adrenal gland, colon, parotid gland, kidney, thyroid gland, thymus, or uterus
162  were obtained using Hermes software for the parotid gland, tongue, thyroid, lung, gastric wall, panc
163 better elucidate the molecular nature of the parotid gland, we have performed RNA sequencing to gener
164 epresent important players that could impart parotid gland-specific biological properties.
165  our detailed analysis has revealed a unique parotid gland-specific gene signature that may represent
166 the various epithelial cell types within the parotid gland.
167 retion and regulatory volume decrease in the parotid gland.
168 rted DNase I mRNA transcript cloned from rat parotid gland.
169 t of SLPI isolated previously from the human parotid gland.
170 ed in the superficial-deep lobe of the right parotid gland.
171  2 females, presented painless masses in the parotid gland.
172 d found later in development surrounding the parotid gland.
173 e submandibular glands (0.1479 mSv), and the parotid glands (0.1137 mSv/MBq).
174  ice packs on (177)Lu-PSMA-617 uptake by the parotid glands (PGs).
175 andibular glands (PRP, 53%; mean SUV, 2.11), parotid glands (PRP, 51%; mean SUV, 1.90), and vocal cor
176                                  One or both parotid glands and at least two-thirds of the tongue wer
177 erian, lacrimal, mandibular, sublingual, and parotid glands and from liver, kidney, pancreas, testis
178 ons, BPIFA2 is expressed specifically in the parotid glands and is abundant in salivary secretions.
179 s, and lymphocytic infiltrates in the lungs, parotid glands and kidneys.
180  or bilateral nonsuppurative swelling of the parotid glands and neurological complications that can r
181  This hormone has been purified from porcine parotid glands and partially sequenced in our previous s
182 associated with high viral loads in infected parotid glands and that late viral protein expression is
183 an, lacrimal, submandibular, sublingual, and parotid glands and the liver.
184                                              Parotid glands appeared to exert a positive effect on de
185  IgG and IgA repertoire within pSS patients' parotid glands are distinct from those in non-pSS contro
186 ter mRNA increased dramatically in Nhe1(-/-) parotid glands but not in those of Nhe2(-/-) or Nhe3(-/-
187          Mumps viral antigen was detected in parotid glands by immunohistochemistry (IHC).
188            Saliva from the submandibular and parotid glands contained higher concentrations of adreno
189              Systems biology analyses of the parotid glands from patients with primary SS and those w
190  p53 is similar in primary parotid cells and parotid glands from PKCdelta(+/+) and PKCdelta(-/-) mice
191 on is suppressed in vivo in gamma-irradiated parotid glands from PKCdelta(-/-) mice.
192 cute time points (30 min to 2 h), irradiated parotid glands had significantly decreased levels of the
193  and to probe its specific roles, we studied parotid glands in mice with the K(Ca)1.1 gene ablated.
194 n vitro functioning of acinar cells from the parotid glands of mice with targeted disruption of Na(+)
195                                  Indeed, the parotid glands of Nhe1(-/-) mice expressed higher levels
196 sis is suppressed by greater than 60% in the parotid glands of PKCdelta(-/-) mice.
197 ping the Ig-producing cell repertoire in the parotid glands of primary Sjogren's syndrome (pSS) patie
198 culate that B cell hyperproliferation within parotid glands of pSS patients may result from Ag-indepe
199 ts in a robust induction of apoptosis in the parotid glands of wild type mice, whereas apoptosis is s
200                                              Parotid glands received higher doses (1.3 mGy/MBq) than
201 that IGF-1 promotes DNA repair in irradiated parotid glands through the maintenance and activation of
202  IK channels, activated fluid secretion from parotid glands was normal.
203    Homogenates and subfractions from macaque parotid glands were able to phosphorylate synthetic pept
204 ng demonstrated that the acinar cells of the parotid glands were the primary location for both the pa
205                                  Sparing the parotid glands with IMRT significantly reduces the incid
206 ritical structures were the spinal cord, the parotid glands, and the mandible.
207                       Uptake in bone marrow, parotid glands, and tonsils was slightly but statistical
208                              In perfused rat parotid glands, isoproterenol induced staining of both a
209  absorbed dose to kidneys, submandibular and parotid glands, liver, spleen, and bone marrow was 0.39,
210  the production of type 1 IFN; injury to the parotid glands, lungs, and kidneys is seen; 3) progressi
211 metrically defined ipsilateral/contralateral parotid glands, submandibular glands, and oral cavity su
212 ound uptake than (68)Ga-HBED-PSMA-11 (in the parotid glands, the mean SUVmax for (68)Ga-THP-PSMA was
213 therapy (IMRT) can reduce irradiation of the parotid glands.
214 om the native pancreas and submandibular and parotid glands.
215 the in vivo functions of these exchangers in parotid glands.
216 revealed that AC5/6 and AC3 are expressed in parotid glands.
217 ncluding human gingiva and submandibular and parotid glands.
218 istent uptake in the salivary, lacrimal, and parotid glands.
219 ssory protein, LRRC26, which is expressed in parotid glands: expressed parSlo + LRRC26 channels were
220 G uptake in the cerebral cortex, cerebellum, parotid grand, myocardium, and bowel mostly reflected th
221               In addition, the 30-amino acid parotid hormone was synthesized.
222 lands were the primary location for both the parotid hormone-related mRNAs and the translation produc
223 with the amino acid sequence of the isolated parotid hormone.
224  cell lines from the submandibular (HSG) and parotid (HSY) salivary glands.
225             Our findings show that malignant parotid lesion was the stiffest lesion according to elas
226 RESENT THE ROLE OF ELASTOSONOGRAPHY IN THREE PAROTID LESIONS: a case of benign pleomorphic adenoma, a
227                                     By using parotid lobules from ad libitum fed rats stimulated with
228 the livers, kidneys, spleens and superficial parotid lymph nodes of the mice.
229 urgical oncology team, who believed that the parotid mass and cervical adenopathy were technically re
230 and showed that ectopic expression in either parotid or pulmonary MEC tumor cell lines containing the
231 eristics when compared with the proteomes of parotid or submandibular/sublingual secretions.
232 ndard and high-sucrose diets, removal of the parotid or the submandibular/sublingual glands, and diet
233 essed by the MSCs of human major SGs, namely parotid (PAG), sublingual (SLG) and submandibular (SMG)
234 , we achieved relative quantification of the parotid peptides at four time points.
235 he thymus as a source of immature T cells in parotid (PG) and submandibular salivary glands (SMG) wer
236 secreted by the 3 major salivary glands: the parotid (PG), the submandibular (SMG), and the sublingua
237                        AG10 and AG18 blocked parotid phosphorylation events only at concentrations th
238 eased abundance of Car2.Ae2 complexes in the parotid plasma membranes of Nhe1(-/-) mice.
239 (+)-K(+)-2Cl(-) cotransporter (NKCC1) in rat parotid plasma membranes was studied using the reversibl
240 nomas, myeloma, melanoma, colonic carcinoid, parotid pleomorphic adenoma, and teratoma.
241          The increased potency of InsP(3) in parotid probably results from a four-fold higher number
242 on between tumor volume and mean dose to the parotids (r = -0.41) and kidneys (r = -0.43).
243 hole saliva (r = 0.10, p < 0.05), stimulated parotid saliva (r = 0.13, p < 0.02), and stimulated SMSL
244 le saliva (r = 0.24, p < 0.0001), stimulated parotid saliva (r = 0.13, p < 0.03), unstimulated SMSL (
245  however, it was 37%, 18% lower than Db from parotid saliva (reported previously).
246     Proline-rich proteins were enriched from parotid saliva and found to increase binding of anthocya
247                                 We collected parotid saliva as the ductal secretion from three human
248 ntified as the major iron-binding protein in parotid saliva by 59Fe autoradiography and Western blott
249               Iron binding was determined in parotid saliva by addition of nonlabeled and 59Fe labele
250                 No iron was found in LF from parotid saliva in either group.
251  agglutinin blocked the inhibitory effect of parotid saliva on exogenously applied human leukocyte el
252 rnal effects on the composition of the human parotid saliva peptidome.
253 ptides in the < or =10-kDa fraction of human parotid saliva that included many novel species.
254                                    Whole and parotid saliva was collected from LAgP patients and matc
255                                              Parotid saliva was collected from subjects into separate
256 ed that the low-molecular-weight fraction of parotid saliva was peptide-rich, with novel fragments of
257 ated and stimulated whole saliva, stimulated parotid saliva, and stimulated labial minor gland saliva
258                                              Parotid saliva, nasal wash, and serum were collected pri
259                       When iron was added to parotid saliva, the LAgP saliva bound 20 to 30 times les
260 o prepare a low-molecular-weight fraction of parotid saliva, which was analyzed directly or after rev
261 e majority of glucan made by GTF adsorbed to parotid saliva-coated HA remained attached to the surfac
262 requency was 14%, similar to Db protein from parotid saliva.
263 several other components from both SM-SL and parotid saliva.
264 l saliva, but it was essentially absent from parotid saliva.
265 uence, we isolated the agglutinin from human parotid saliva.
266 he wild-type strains adhered better to human parotid-saliva- and amylase-coated hydroxyapatite than d
267  efficacy was evaluated with measurements of parotid salivary flow rate.
268 ly shown that the IK1 and maxi-K channels in parotid salivary gland acinar cells are encoded by the K
269                                   Sequential parotid salivary gland biopsies were taken before RTX, a
270 n double-stranded breaks (DSB) in the DNA of parotid salivary gland cells immediately after treatment
271                                    Using rat parotid salivary gland cells, we examined multiple pathw
272 ells from embryonic day 12 submandibular and parotid salivary glands to characterize their molecular
273 I fold containing family A member 2 (BPIFA2)/parotid salivary protein (PSP), and lactoperoxidase, 3 s
274 ults indicate that proteolytic processing of parotid salivary proteins differs among individuals who
275  is high and these compounds localize to the parotid, salivary, and lacrimal glands as well as to the
276 n of sodium chloride to dialyzed, fungicidal parotid secretion abolished this activity, indicating th
277  genes, respectively, and in vivo stimulated parotid secretion is severely reduced in double-null mic
278  the fungicidal activities of some proteins, parotid secretion was subjected to dialysis with membran
279 Os of >=1000 promoted fungicidal activity of parotid secretion, and this activity was dose dependent.
280                         Protein samples from parotid secretion, submandibular/sublingual secretion, w
281  the major candidacidal capacity of dialyzed parotid secretion.
282                                              Parotid secretory protein (PSP) and palate-lung-nasal ep
283 re, we report that the soluble cargo protein Parotid Secretory Protein (PSP) is bound to the membrane
284 1), anti-carbonic anhydrase 6 (CA6) and anti-parotid secretory protein (PSP), which occur early in th
285 ncluding amylase, proline-rich proteins, and parotid secretory protein (PSP)-to these functions.
286 1 (SP1), anti-carbonic anhydrase 6 (CA6) and parotid secretory protein (PSP).
287 ng family A member 2 (BPIFA2), also known as parotid secretory protein, which we identified via a mul
288 serine kinases with proteolytic activity for parotid secretory protein.
289                                              Parotid secretory proteins are stored in large dense-cor
290 preponderance was seen except in the case of parotid space lesions where female predominance was seen
291                                       In the parotid space, pleomorphic adenoma and in the prestyloid
292              We assessed the hypothesis that parotid-sparing IMRT reduces the incidence of severe xer
293 red conventional radiotherapy (control) with parotid-sparing IMRT.
294 als consists of 3 major pairs of glands: the parotid, submandibular, and sublingual glands.
295                        Immunofluorescence of parotid tissue slices revealed that PMCA1 was distribute
296 ozygous p53 deletion have increased rates of parotid tumor onset suggesting that inactivation of p53
297 adenoma, a Wharthin's tumour and a malignant parotid tumour.
298 from the epithelial component of preexisting parotid Warthin tumors (WT).
299                InsP(3) was more effective in parotid, where [Ca(2+)](c) signals initiated with shorte
300        A muscle cluster was prominent in the parotid, which was not myoepithelial or vascular smooth

 
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