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2 ) and cardiovascular diseases, the effect of mandibular advancement device (MAD) treatment on cardiov
3 ale, 9.3 [4.2]) were randomized to effective mandibular advancement device (n = 75) or sham device (n
6 On intention-to-treat analysis, effective mandibular advancement device therapy was not associated
7 nce was 6.6 (1.4) h/night with the effective mandibular advancement device versus 5.6 (2.3) h/night w
10 moderately sleepy patients with severe OSA, mandibular advancement therapy reduced OSA severity and
16 ified a mosaic of features including facial, mandibular and dental morphology that aligns the Jebel I
19 between worker stages was pronounced in the mandibular and hypopharyngeal gland (HPG), where forager
22 hairless dogs were characterised in both the mandibular and maxillary dentition by a loss of the perm
24 ata indicate that FPD treatment in posterior mandibular and maxillary jaws with NDIs was as reliable
26 p transition in Runx2(-/-) mutant mice, both mandibular and maxillary molar tooth germs progressed to
27 reas in PrV there is considerable overlap of mandibular and ophthalmic terminal fields, with only a s
32 e specific applications such as those of the mandibular angle defect, which is used to investigate bo
33 ircular through and through) were created in mandibular angles of 24 Sprague-Dawley rats were filled
40 hroughout the oral-aboral axis of the distal mandibular arch and subsequently duplication of dentary
42 that SIX1 is the central mediator of dorsal mandibular arch identity, thus ensuring separation of bo
43 tion of the palatal shelves emerged from the mandibular arch instead of the maxilla in the mutants.
45 ession and death of mesenchymal cells in the mandibular arch without affecting epithelial proliferati
52 re;Erk2(fl/fl) mice, namely micrognathia and mandibular asymmetry, are linked to an early osteogenic
54 ian jaw hinge and the postdentary trough for mandibular attachment of the middle ear-a transitional c
55 is that there are significant differences in mandibular biomechanical performance due to food categor
56 w that there is a strong association between mandibular biomechanical performance, mandibular form, f
59 resent a significant advance in the field of mandibular bone augmentation by providing a larger volum
60 f-the-shelf cell-seeded bone biomaterial for mandibular bone augmentation, compared to its acellular
70 se dataset of 637 cone beam CT volumes, with mandibular canals being coarsely annotated by radiologis
71 ing system for automatic localisation of the mandibular canals by applying a fully convolutional neur
73 on the coarsely annotated volumes, localises mandibular canals of the voxel-level annotated set, high
74 this study was to present a case report of a mandibular canine transmigration in a patient aged 12.
78 compared with the ATV group in treatment of mandibular Class II furcation defects as an adjunct to S
79 d HA bone graft in the surgical treatment of mandibular Class II furcation defects compared with auto
80 ntrol group without PCs for the treatment of mandibular Class II furcation defects in humans and to p
82 his systematic review is to evaluate whether mandibular Class II furcation defects treated with the a
83 ce of histologic periodontal regeneration in mandibular Class III defects is limited to one case repo
84 nstrated histologically for the treatment of mandibular Class III defects, the evidence is limited to
86 of I-PTH on the chondrogenic lineage of the mandibular condylar cartilage (MCC) are not well underst
87 The matrix encapsulating the cells of the mandibular condylar cartilage (MCC) is rich in type VI c
88 on is initiated from the inferior portion of mandibular condylar cartilage with expansion in one dire
89 ocartilaginous tissue positioned between the mandibular condyle and glenoid fossa of the temporal bon
91 o bone cells is common in both long bone and mandibular condyle development and during bone fracture
92 rived from the temporomandibular joint (TMJ) mandibular condyle that generates cartilage anlagen, whi
93 formation of maxillary zygomatic bone into a mandibular condyle-like structure, Six1 (-/-)Six2 (+/-)
96 hic images showed normal molars but abnormal mandibular condyles, as well as alveolar bone loss in Dd
97 ently, we present evidence that a dysplastic mandibular coronoid process was also seen in some human
99 5 mm and a normal appearance of the inferior mandibular cortex were the most sensitive variables for
101 ion between osteoporosis, as measured by the mandibular cortical index (MCI), and MBL and 2) to asses
103 ndices were reported by most of the studies: mandibular cortical width, panoramic mandibular index, a
108 investigated its success in reconstructing a mandibular defect of physiologically relevant size in sh
109 onload-bearing area, and the inferior border mandibular defect, which is a model for composite bone a
112 scientific literature on classifications for mandibular defects that are sufficiently presented eithe
116 iveness of PRF and 1% ALN gel combination in mandibular degree II furcation defect treatment in compa
117 y play an important role in craniodental and mandibular design in capuchins and may be reflected in r
118 These results suggest that Hand2 regulates mandibular development through downstream genes of Hand2
119 istal tip, leading the fusion of two growing mandibular elements surrounding the rostral process of M
125 ent of maxillary facial, mesial, distal, and mandibular facial or lingual Class II furcation defects
126 ent of maxillary facial or interproximal and mandibular facial or lingual Class II furcation defects.
127 auriform skull, including the antorbital and mandibular fenestrae, serrated teeth, and closed lower t
128 oncurrently on cementum and AB regeneration, mandibular fenestration defects were created in Ank knoc
129 the following measurements were made between mandibular first (M1) and second (M2) molars: relative a
133 to the gingival tissue (GT) of maxillary and mandibular first molars and into the interdental space b
134 ramarginally around the cervix of right-left mandibular first molars and maintaining the sutures for
136 axillary first molars and the M roots of the mandibular first molars during nonsurgical and surgical
138 n the furcation region and mesial gingiva of mandibular first molars to measure periodontal bone loss
140 truction of the ligated maxillary second and mandibular first molars were evaluated by dental radiogr
141 the buccal surface of the distal root of the mandibular first molars, and both periodontal ligament (
143 llary first molars and in the M roots of the mandibular first molars, the likelihood of the presence
145 were placed around the cervical area of the mandibular first molars; rats in the healthy control gro
147 te root anatomy and root canal morphology of mandibular first premolars in a Chinese population.
148 of the root anatomy and canal morphology of mandibular first premolars in southwestern Chinese popul
150 etween mandibular biomechanical performance, mandibular form, food hardness and diet categories and t
152 mplex fracture of the C2 vertebra body and a mandibular fracture after a penetration gunshot to the c
153 In patients with hypoesthesia following mandibular fractures, increased aNMCNR, aSNR and nerve d
157 cribed, including cuticular hydrocarbons and mandibular gland components that act as H. saltator pher
164 (Irf6 (+/-) ; Twist1 (+/-) ) can have severe mandibular hypoplasia that leads to agnathia and cleft p
166 athway is essential for the establishment of mandibular identity during development of the first phar
168 rmine the root canal morphology of permanent mandibular incisor teeth in the Indian subpopulation wit
171 ed gingival tissue (KT) height labial to the mandibular incisors after active orthodontic treatment (
174 d examine root canal morphology of permanent mandibular incisors in an Indian sub-population of Pune,
179 CT images of 200 patients with 800 permanent mandibular incisors, fulfilling necessary inclusion crit
180 /-) mice have small, malformed maxillary and mandibular incisors, indicating that Grem2 has important
186 The mandibular cortical width, panoramic mandibular index, and Klemetti index are overall useful
188 udies used a cutoff of 0.3 for the panoramic mandibular index, resulting in an estimated sensitivity
189 p showed a lower degree of relapse using the mandibular irregularity index when compared with convent
191 to ectopic Dlx5 expression at the maxillary-mandibular junction as recently reported in E10.5 Six1 (
194 Morphometric measurements showed increased mandibular length and condyle head length following I-PT
198 vement in females were, in descending order, mandibular, maxillary, and sphenoid bones, while the sph
199 ssive acrofacial dysostosis characterized by mandibular median cleft associated with other craniofaci
200 f hedgehog signaling in neural crest-derived mandibular mesenchyme led to expansion of BMP signaling
201 age or specifically in developing palatal or mandibular mesenchyme, respectively, using Wnt1-Cre, Osr
203 that are interpreted to be for gliding and a mandibular middle ear with a unique character combinatio
204 tion of miR-153 in the region of mouse first mandibular molar at postnatal day 8 (PN8) induced AI-lik
207 of the Bmp4-Msx1 signaling pathway, rescues mandibular molar morphogenesis in Inhba(-/-) embryos.
209 ogether with our finding that the developing mandibular molar tooth bud mesenchyme expresses signific
210 xhibit bud-stage developmental arrest of the mandibular molar tooth germs while their maxillary molar
211 f activin or Bmp4 signaling on maxillary and mandibular molar tooth morphogenesis are mainly due to t
212 gnaling, or the DKK inhibitor IIIC3a rescued mandibular molar tooth morphogenesis in Inhba(-/-) embry
215 rs; 2) facial and lingual Class I defects in mandibular molars; 3) facial and interproximal Class II
216 al and lingual Class II furcation defects in mandibular molars; 5) Class III furcation defects in max
217 ry molars; 6) Class III furcation defects in mandibular molars; and 7) Class I, II, or III furcation
218 e the tongue as well as an important role in mandibular morphogenesis that secondarily affects palata
219 the epithelium of the Islet1 mutant rescued mandibular morphogenesis through sonic hedgehog (SHH) si
221 ignificance of variation in craniodental and mandibular morphology in fossil hominins is not always c
226 ntromedial neuropil of the tritocerebrum and mandibular neuromere, and (b) the anterior ventral senso
227 between the four neuromeres (tritocerebrum, mandibular neuromere, maxillary neuromere, labial neurom
230 plants by means of ball attachment-supported mandibular ODs is a successful treatment procedure.
231 eatment outcomes of ball attachment-retained mandibular ODs supported by one-piece, unsplinted, immed
232 and to a private practice for treatment with mandibular ODs were considered for inclusion in this stu
233 sus terminal position in arch), dental arch (mandibular or maxillary), arch location (anterior or pos
234 lamed condition, RANKL upregulation in human mandibular osteoblast-like cells (HMOBs) were stimulated
239 transcription factors that are critical for mandibular patterning including DLX5, DLX6 and HAND2, we
244 ependent variable demonstrated that the SNB, mandibular plane angle, and the inclination of the maxil
249 his case-control study for sample size, sex, mandibular premolar extractions, pretreatment age, post-
253 rphometrics, we assess the morphology of the mandibular premolars of the species at the enamel-dentin
255 tes, is expressed in the neural crest in the mandibular process but not in the maxillary process of t
256 haploinsufficient embryos presented altered mandibular process fusion and micrognathia, thus recapit
257 Barx1, Foxc2 and Fgf8, in the maxillary and mandibular processes of the mutants, indicating mis-patt
258 1 is expressed in the developing eye, brain, mandibular processes, and limb buds or pectoral fins.
260 or genomic regions directly associated with mandibular prognathism development, by employing whole g
263 tions of two premolars and one molar on each mandibular quadrant (Day 0); bone healing time (week14);
264 ts the mode of bone formation in much of the mandibular ramus (chondrocyte-derived) with intramembran
265 k through-and-through osseous defects on the mandibular ramus of rats, with unfilled defects serving
266 nts with severe mandibular deficiency, their mandibular ramus was elongated by the TMJ prosthesis and
269 f a 2.7 kg male baby born with growth on his mandibular ridge which was excised and was proved to be
273 at all affected individuals were missing the mandibular second molar and their maxillary central inci
275 gh-surface endoosseous implants, two on each mandibular side; implant uncovering (week 28); induction
279 ngness to retreat was negatively affected by mandibular sites, larger treated areas and the perceived
280 ites co-occupied by Gli3 and Hand2 uncovered mandibular-specific, low-affinity, 'divergent' Gli-bindi
281 gestive behaviors are associated with higher mandibular strain magnitudes than mastication, these res
282 igin, with regions derived from the anterior mandibular-stream cranial neural crest or from multiple
283 o living analog, and its giant size and high mandibular strength confer shell-crushing capability mat
284 aintenance to preserve the native anatomical mandibular structure in the defect site before reconstru
291 ect of surgical interventions for removal of mandibular third molar (M3M) on periodontal healing of a
297 The increased osteogenic differentiation of mandibular torus MSCs was associated with the suppressio
298 lary prominence, resulting in a maxillary to mandibular transformation, suggesting that the p.Tyr129P
299 nvestigated the patterns of craniofacial and mandibular variation from Mesolithic hunting-gathering t
300 etween transitional and intensive farmers in mandibular variation which is consistent with differenti