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1 ess, heavy-bodied and had a much more robust cranium.
2 d in a 11 x 14 cm2 scalp defect with exposed cranium.
3 rain via a hollow screw inserted through the cranium.
4 aurs than in birds across all regions of the cranium.
5 and concussion of the brain by striking the cranium.
6 due in part to the insulating nature of the cranium.
7 t was observable in the cranial base and the cranium.
8 oordinated growth of the brain and overlying cranium.
9 evolution while minimizing expansion of the cranium.
10 tly ventral to the disc on the dorsum of the cranium.
11 l morphology and evolutionary changes in the cranium.
12 e Holocene based on the overall shape of the cranium.
13 y that some CM attacks originate outside the cranium.
14 caused his death are the two to the inferior cranium.
15 greater functionality to fit into a smaller cranium.
16 paired craniectomy versus rats with a closed cranium.
17 l openings in nematodes, ants, and the mouse cranium.
18 tract or for neoplasms of the inner ear and cranium.
19 ation of a balloon catheter placed under the cranium.
20 s in a finite model of a Macaca fascicularis cranium.
21 1 expression and dermal cell identity in the cranium.
22 during morphogenesis of membrane bone of the cranium.
23 irtual reconstruction of the Pierolapithecus cranium, 2) assessed its morphological affinities using
24 stone tools, with a largely chimpanzee-like cranium, a prognathic face and a brain slightly larger t
25 nounced, with large portions of the face and cranium affected, including the mandible and frontal and
26 sociation of Denisovan mtDNA with the Harbin cranium allows a better understanding of the morphologic
27 l embalming through the cutmarks left on the cranium and appendicular skeleton and to compare mortuar
28 amera-type eyes, paired nasal sacs, possible cranium and arcualia, W-shaped myomeres, and a post-anal
29 n is a partial skeleton with nearly complete cranium and associated lower jaws with in situ dentition
30 tissues contribute to the development of the cranium and associated sensory organs, which were crucia
31 rain injury mechanical forces applied to the cranium and brain cause irreversible primary neuronal an
32 xhibits a 2-tier "lag behind" phenomenon for cranium and brain evolution, both being proportionately
37 e loading, stress, and strain regimes in the cranium and mandible, understanding the relative importa
38 Shifts are partially decoupled between the cranium and mandible, with cranial evolution more strong
39 ectrum of feline-like phenotypes in both the cranium and mandible, with sporadic instances of unequiv
41 of approximately 95% is possible if both the cranium and os coxae are present and intact, but this is
42 ollar, but they failed to form the posterior cranium and other bones derived from endochondral ossifi
44 an adults differ in skeletal features of the cranium and postcranium, and it is clear that many of th
45 cal evidence provided by the rest of the LB1 cranium and postcranium, and no study thus far has addre
46 near-complete human skeleton with an intact cranium and preserved DNA found with extinct fauna in a
47 frequently involves the anterior base of the cranium and results in encasement of the optic-nerve can
49 n, 12 radionuclides that localize within the cranium and spinal skeleton and 12 radionuclides that se
50 in which unequivocal specializations in its cranium and teeth for high-fibre herbivory are well pres
51 he mandible may not evolve as rapidly as the cranium and the mandible is not reliable for identifying
54 ateral ventricle and internal surface of the cranium and third ventricle width depending on the sever
55 f the previous studies focused solely on the cranium and/or were phylogenetically limited in scope,(1
56 s well as for neoplasms of the inner ear and cranium, and b) there is consistency and value in RI stu
58 ipheral olfactory system located outside the cranium, and is connected with the brain via direct neur
59 -functional basis for the derived chimaeroid cranium, and shed new light on the chondrichthyan respon
61 pecies of Homo erectus A recently discovered cranium (Aroeira 3) from the Gruta da Aroeira (Almonda k
62 localities to have provided a fossil hominin cranium associated with Acheulean bifaces in a cave cont
63 The combination of traits in the Aroeira 3 cranium augments the previously documented diversity in
64 of Anolis morphology has focused on the post-cranium because of its significance towards subdivision
65 he Atapuerca (SH) fossils and the Swanscombe cranium belong to the Neandertal clade, whereas the Arag
66 ranial pressure (ICP) is pressure within the cranium, between 5 and 15 mmHg in a normal brain, and is
67 nasion-glabella region of the Taung partial cranium (but not along the frontal crest), this characte
68 chain of bones attached to the mandible and cranium, but in adult mammals the chain is detached from
70 , the external cranial morphology of the LB1 cranium cannot be accommodated within a large global sam
71 root of the eighth cranial nerve within the cranium caused rapid effects on unit responses to head r
72 the first 48 months of life, detail how the cranium changes in form (size and shape) in each sex and
73 is toothless and large-eyed, with a vaulted cranium closely resembling the condition in crown birds;
75 ed tissue (14 +/- 2%; P < 0.05) within a rat cranium critical defect compared with a non-mineralized
78 ulti-omic atlas of human embryonic joint and cranium development between 5 and 11 weeks after concept
80 rative morphometric analyses of the KNM-LH 1 cranium document the temporal and spatial complexity of
83 rabbit skull, the biomechanics of the whole cranium during mastication have yet to be fully explored
84 Alcian Blue and Alizarin Red staining of the cranium exhibited an unfused nasal capsule and palatine
86 rphometric analysis of a near-complete Mungo cranium finds closest links to East Asian and New Guinea
87 e risk of CNS tumours after radiation to the cranium for a paediatric cancer, compared with the risk
90 nt a newly reconstructed face of the DAN5/P1 cranium from Gona, Ethiopia (1.6-1.5 Ma) that, in conjun
92 d shows strong affinities to the KNM ER 1470 cranium from Kenya (Homo rudolfensis), a morphotype prev
95 ndwanatherian, a complete and well-preserved cranium from Upper Cretaceous strata in Madagascar that
96 Here we describe a nearly complete hominin cranium from Woranso-Mille (Ethiopia) that we date to 3.
97 d via rapid acceleration-deceleration of the cranium, giving rise to subtle pathological changes appr
100 d physiology of pain transmission within the cranium have been elucidated, and advances been made int
102 inuses in relation to the development of the cranium, i.e. both the viscerocranium and the neurocrani
103 ometrically, comparison of the retrodeformed cranium (IGF 867_W) with other specimens of the same spe
107 The results show that the majority of the cranium, including the fenestrated rostrum, transmits ma
113 n completely quarried away, and-although the cranium is often estimated to be around 500 thousand yea
115 ffect shape comparisons between a diminutive cranium like LB1 and the much larger crania of modern hu
116 yet to be directly associated with a hominin cranium, limiting our understanding of their morphology
117 ielded a largely complete early modern human cranium, Oase 2, scattered on the surface of a Late Plei
118 morpho-functional landscape modelling on the cranium of 132 carnivore species, we focused on the macr
119 st significant specimen is the near-complete cranium of a large individual, designated LES1, with an
120 e to radiation that a single low dose to the cranium of a mature rat is sufficient to ablate hippocam
123 however, an additional, minimally distorted cranium of a young juvenile from a nearly contemporaneou
124 ew species, represented by the most complete cranium of forstercooperiines known to date, shows the e
125 osseous defects (5 mm) were prepared in the cranium of immunocompromised mice and were treated with
126 r than size estimates based on a fragmentary cranium of its contemporary and close relative Apidium p
127 ostrum and hemimandible, and reconstruct the cranium of M. bassanii in 3D using the rendered models o
128 sference of post-dentary jaw elements to the cranium of mammals as auditory ossicles is one of the ce
133 metrics to characterize shape changes in the cranium of the Longshanks mouse, which was selectively b
134 s at DNA extraction from teeth, petrous, and cranium of this and other individuals from the Kadruka c
135 toff size was reduced in tumors grown in the cranium or in regressing tumors after hormone withdrawal
137 ing to electrical stimulation of the thinned cranium overlying the middle meningeal artery (MMA).
138 specific craniofacial regions, including the cranium, palate, salivary glands, tongue, floor of mouth
139 can result in increased pressure within the cranium, potentially causing damage to the brain or even
140 this species, partly because the sole known cranium, preserving a nearly complete face, suffers from
145 sensory nerve innervation of the developing cranium results in premature calvarial suture closure, a
146 We hypothesise that many-to-one mapping of cranium shape on function may prevent the detection of d
147 strate that the mandible, in contrast to the cranium, significantly reflects subsistence strategy rat
148 the paranasal sinuses and the growth of the cranium, standard anthropometric points on the skull and
149 y 2.8- to 2.6-million-year-old early hominid cranium (Stw 505) from Sterkfontein, South Africa, tenta
152 receptor-expressing lesions confined to the cranium, thereby permitting normal-organ dosimetry for t
153 rse suboccipital muscles before entering the cranium through bony canals and large foramens; that cen
155 ological comparison of the adolescent Oase 2 cranium to relevant Late Pleistocene human samples docum
156 on brain compliance (ie, the ability of the cranium to tolerate volume changes) and on cerebral auto
157 They show that from 0 to 12 months, the cranium undergoes greater changes in form than from 12 t
162 both stresses and strains occurred when the cranium was modeled with a low level of non-homogeneity
165 an increase in the size of the brain and the cranium, whereas the size of the face, as well as the si
166 , respiratory, and sensory structures of the cranium, which we quantified with a high-density, three-
167 134 represents the earliest occurrence of a cranium with clear affinities to Homo erectus These cran
168 focused ultrasound through the intact human cranium with magnetic resonance imaging (MRI) guidance.
170 , to our knowledge, most complete fossil ape cranium yet described, recovered from the 13 million-yea