ライフサイエンスコーパス: temporal bone

1 uld reflect covariation with the surrounding temporal bone.

2 c or magnetic resonance imaging study of the temporal bone.

3 structure, and embedded location within the temporal bone.

4 FFPE tissue can be applied to human archival temporal bones.

5 dequacy of acoustic windows in the squama of temporal bones.

6 ovides a practical approach to understanding temporal bone anatomy, localizing a pathologic process w

7 second part will first discuss trauma to the temporal bone and posttraumatic complications.

8 CT scan of the temporal bone and surgery were performed in all patients

9 er, due to its location beneath the squamous temporal bone and temporalis muscle, the STG, like other

10 common surgical procedures performed in the temporal bone and their postoperative imaging appearance

11 Observer 1 diagnosed SSCD in 25 of 108 (23%) temporal bones and had no discordances between the two r

12 Observer 2 diagnosed SSCD in 21 of 108 (19%) temporal bones and had one intraobserver discordance.

13 mandibular condyle, the glenoid fossa of the temporal bone, and a fibrocartilagenous disc interposed

14 MRI imaging of brain and temporal bone are normal.

15 mmatory nonneoplastic entities involving the temporal bone are reviewed.

16 formations from multi-detector row CT of the temporal bone are sufficient for the evaluation of SSCD.

17 occipital bone and non-squamous parts of the temporal bones are mesoderm derived.

18 f the temporal bone discussed anatomy of the temporal bone as well as inflammatory and neoplastic pro

19 s is important because the majority of human temporal bone banks have specimens preserved in formalin

20 abnormal processes in the paranasal sinuses, temporal bones, base of the skull, and neck.

21 directed toward the facial nerve within the temporal bone by placing a 6.5 cm figure-8 stimulation c

22 These results show that the hominoid temporal bone contains a strong phylogenetic signal and

23 ctions in mean CTDIvol were most notable for temporal bone CT (-56.1%), peripheral runoff CT angiogra

24 up was composed of 50 patients who underwent temporal bone CT for causes unrelated to SNHL.

25 one with 9 years of experience interpreting temporal bone CT images, independently reviewed the 108

26 Temporal bone CT scans with 1.0-mm and/or 0.5-mm collima

27 Temporal bone CT studies obtained before and after a maj

28 The first part of this review of the temporal bone discussed anatomy of the temporal bone as

29 -dimensional landmark data from the hominoid temporal bone effectively quantify the shape of a comple

30 Within this framework, temporal bones from subjects with ARHL may be classified

31 sinus, or jugular bulb, those of the petrous temporal bone had a higher risk (50%, 36 of 72 fractures

32 siology is largely unknown, studies in human temporal bones have found an accumulation of endolymph i

33 modeling, auditory nerve imaging, and human temporal bone histology are all potential options for va

34 Temporal bone histology in a patient with severe xeroder

35 Medical records and temporal bone images of patients with NTM otomastoiditis

36 in-section polytomography, especially of the temporal bone, in 1954.

37 50 years; range, 18-87 years), who underwent temporal bone multi-detector row CT for other reasons, w

38 ears) suspected of having SSCD who underwent temporal bone multi-detector row CT were retrospectively

39 stibular endorgans microdissected from human temporal bones obtained at autopsy.

40 The discordance involved the right temporal bone of a patient suspected of having SSCD in t

41 The histological examination of temporal bones of cadaver animals and the intensity of i

42 y associated with fractures of the mandible, temporal bone or other facial bones.

43 In those without temporal bone osteomyelitis, antibiotic treatment can be

44 stapes) housed in the tympanic cavity of the temporal bone play an important role in audition.

45 gery (commonly including radical excision of temporal bone), radiotherapy, and chemotherapy.

46 inflammatory and neoplastic processes in the temporal bone region (1).

47 of an in vitro turtle brainstem in which the temporal bones remained attached.

48 e, hypervascular lesions that arise from the temporal bone retrolabyrinthine region.

49 of inner ear tissues from post-mortem DFNA9 temporal bone samples of an individual from a large Dutc

50 placed by eosinophilic acellular material in temporal bone sections of individuals affected with DFNA

51 By immunohistochemistry on the DFNA9 temporal bone sections, we have shown cochlin staining o

52 patient suspected of having SSCD in the left temporal bone, so no clinical follow-up was available.

53 hleas from formalin-fixed celloidin-embedded temporal bone specimens of three different types of pati

54 used on 20 serially sectioned archival human temporal bone specimens.

55 Evidence from human temporal bone studies and auditory brainstem response me

56 h these lesions from more common, aggressive temporal bone tumors.

57 ne CT images, independently reviewed the 108 temporal bones twice.

58 In some animals, the temporal bone was harvested for histologic analysis of c

59 Thin-section computed tomography (CT) of the temporal bone was performed.

60 Sixteen human temporal bones were cut around the cochlea in blocks of

61 Sprague-Dawley rat temporal bones were harvested and decalcified.

62 Anatomical analyses of the temporal bone, which is derived in part from the otic me

63 er of structures and disease entities in the temporal bone with which one must be familiar in order t

64 d guinea pig inner ears were imaged as whole temporal bones with cochlea in situ.

65 mandibular condyle and glenoid fossa of the temporal bone, with important roles in TMJ functions.