ライフサイエンスコーパス: vertebral body

1 ight of or over the spinous processes of the vertebral body.

2 terior elements, with partial involvement of vertebral body.

3 mount of polymethylmethacrylate injected per vertebral body.

4 tion of inflatable bone tamps (IBT) into the vertebral body.

5 located on the anterolateral surface of the vertebral body.

6 rienced relapse, with painful collapse of L3 vertebral body.

7 ance in 1984 due to a hemangioma of cervical vertebral body.

8 d the destruction of the anterior rim of the vertebral body.

9 y fractures and liquefactive necrosis of the vertebral body.

10 n the midline to the posterior aspect of the vertebral body.

11 n the intervertebral disc accumulates in the vertebral body.

12 protein from the intervertebral disc to the vertebral body.

13 iffuse away from its place of synthesis, the vertebral body.

14 anterolateral spinal column at four adjacent vertebral bodies.

15 ocytic cells of presumptive inner annuli and vertebral bodies.

16 narrowing, and anterior wedging of involved vertebral bodies.

17 c space and permanent fusion of the adjacent vertebral bodies.

18 n the craniofacial structures but not in the vertebral bodies.

19 evel of the fifth, eighth, and 10th thoracic vertebral bodies.

20 Each site may involve up to 2 contiguous vertebral bodies.

21 ral alterations in the adjacent NP cells and vertebral bodies.

22 f 98.3% for the differentiation of edematous vertebral bodies.

23 ed to well-segmented areas of the developing vertebral bodies.

24 n infusion of donor BM cells isolated from 9 vertebral bodies.

25 gth and stiffness in both the tibiae and the vertebral bodies.

26 facial cartilage, heart, bronchi, kidney and vertebral bodies.

27 5/8 phosphorylation was decreased in CV2(-/-)vertebral bodies.

28 terally within the thoracic and lumbar spine vertebral bodies.

29 V2 protein is normally located in the future vertebral bodies.

30 ating sclerotomal cells that form the mature vertebral bodies.(4) Previous work demonstrated that not

31 diameter at the aortic arch, carina, and one vertebral body above the gastroesophageal junction was 1

32 epidural empyemas, abscess between adjacent vertebral bodies, abscesses beneath anterior longitudina

33 This pipeline first detects and labels vertebral bodies across several commonly used sequences

34 rning defects that included fusions of ribs, vertebral bodies and abnormal formation of spinous proce

35 Apart from ordinary features of vertebral bodies and discs, progressive spinal destructi

36 bris, and gadolinium-enhancement patterns of vertebral bodies and disks may help differentiate spinal

37 l skeleton consists of a metameric series of vertebral bodies and intervertebral discs, as well as ad

38 In adult mice, fusion of vertebral bodies and of spinous and transverse processes

39 o rapidly measure morphometric quantities in vertebral bodies and output LLAs across multiple modalit

40 from both somitic mesoderm, which forms the vertebral bodies and ribs, and from lateral plate mesode

41 Chordomas are tumors that arise at vertebral bodies and the base of the skull.

42 h plates, and therefore include at least the vertebral body and arch.

43 f occult vertebral body and facet fractures, vertebral body and facet contusions, intervertebral disk

44 dent readers assessed the presence of occult vertebral body and facet fractures, vertebral body and f

45 However, worsening destruction of vertebral body and intervertebral disc, abnormal vertebr

46 f the abdominal aorta at the level of the L3 vertebral body and its associations with multiple variat

47 ed diffuse bony involvement including the T7 vertebral body and left pedicle, ribs, pelvis, and calva

48 Lytic disease involving more than 40% of the vertebral body and location at or below T10 confer a hig

49 on chest radiograph with destruction of the vertebral body and preservation of the disc space.

50 of spinal deformity, the position of the C7 vertebral body and sacrum remain within the 95% confiden

51 rst from intervertebral spaces and then from vertebral bodies, and it progressively underwent apoptos

52 imarily in the anterosuperior portion of the vertebral body, and cleft margins appeared increasingly

53 muscle, abdominal fat, lower thoracic spine, vertebral body, and humeral head.

54 roplasty, long-term outcome of cement in the vertebral body, and utility of prophylactic vertebroplas

55 Vertebral bodies are segmented along the anteroposterior

56 In lumbar vertebrae reduced vertebral body area and wall thickness were accompanied

57 usions were more widespread and involved the vertebral bodies as well as the neural arches.

58 The purpose of the IBT is to restore the vertebral body back toward its original height, while cr

59 lgorithm, can measure three-dimensional (3D) vertebral body BMD across consistently imaged thoracic l

60 This study illustrated that the vertebral body BMD values of the patients with scoliosis

61 ficity, and area under the curve of DECT for vertebral body BME were 89% (95% CI: 84%, 92%), 96% (95%

62 ecipients infused perioperatively with donor vertebral body bone marrow (DBMC-i) vs. 219 noninfused c

63 ecipients infused postoperatively with donor vertebral body bone marrow cells.

64 leen cells in the presence of specific donor vertebral-body bone marrow cell (DBMC) modulators were t

65 populations were isolated from cadaver donor vertebral-body bone marrow cells (DBMC) by using immuno-

66 The spinal cord, vertebral bodies, both neural foramina, and anterior par

67 Vertebral body cartilage from embryonic day 7 and embryo

68 entrate diffusible Tsg/BMP4 complexes in the vertebral body cartilage.

69 metameric structure composed of alternating vertebral bodies (centra) and intervertebral discs.(1) R

70 Surprisingly, we find that vertebral bodies (centra) arise by secretion of bone mat

71 vertebral body (P<.01), and continuation of vertebral body changes with posterior pharyngeal wall ul

72 Both MRI studies were analysed for vertebral body changes, paravertebral collections, epidu

73 rvening joint change (P<.001), more cases of vertebral body collapse (P<.01), more bilateral symmetri

74 At least one moderate or severe vertebral body compression fracture was identified retro

75 DXA, 39 (48%) of 81 patients with unreported vertebral body compression fractures had a nonosteoporot

76 Most clinically important vertebral body compression fractures in nontrauma patien

77 iewed for the presence of moderate or severe vertebral body compression fractures of the lower thorac

78 Other findings included adjacent vertebral body destruction with psoas muscle abscess (n

79 Bone marrow in the vertebral bodies displays somewhat variable behavior at

80 ost notochord cells dispersed throughout the vertebral bodies during embryogenesis.

81 The resulting reinforcement of the fractured vertebral bodies eliminated the pain and the need for na

82 able to depict bone marrow in the collapsed vertebral bodies, especially in those with less than 50%

83 vertebral bodies, severe destruction of the vertebral body, focal/heterogeneous contrast enhancement

84 Bone needle was inserted into the vertebral body, followed by injection of PMMA cement.

85 OO was in the vertebral body for 18 of 57 patients, the neural arch fo

86 ression of CDMP-1 in the notochord inhibited vertebral body formation by blocking migration of sclero

87 , one person was diagnosed with pathological vertebral body fractures and liquefactive necrosis of th

88 asty, 22 (12.4%) developed a total of 36 new vertebral body fractures following treatment.

89 There were 141 thoracic and lumbar vertebral body fractures in the case set.

90 er system detects and anatomically localizes vertebral body fractures in the thoracic and lumbar spin

91 ith positive findings for fractures (59 with vertebral body fractures) and 10 control examinations (w

92 to therapeutic approaches that help prevent vertebral body fractures.

93 ting bone marrow edema (BME) associated with vertebral body fractures.

94 BMD were performed by QCT analysis for each vertebral body from T12 to L5, and mean BMD was calculat

95 Mean opacification of vertebral body halves was 83% +/- 19 (SD) and 77% +/- 16

96 educe pain and further collapse and/or renew vertebral body height by introducing bone cement into fr

97 Kyphoplasty increased vertebral body height more than vertebroplasty in this m

98 ections, bone marrow signal changes, loss of vertebral body height, abnormal signal in intervertebral

99 The statistical significance of changes in vertebral body height, wedge angle, and weight with the

100 and function as well as some restoration of vertebral body height.

101 ry, required a >or=20% (or >or=4-mm) loss of vertebral body height.

102 The anterior, central, and posterior vertebral body heights and wedge angles were measured in

103 focal/heterogeneous contrast enhancement of vertebral bodies, heterogeneous signal from the vertebra

104 f vertebral bodies, low-grade destruction of vertebral bodies, hyperintense/homogeneous signal from t

105 sk R-CNN, to automatically segment and label vertebral bodies in lateral cervical and lumbar spinal X

106 Five porcine vertebral bodies in one pig underwent intervention (IRE

107 hod and using the activity concentrations in vertebral bodies in SPECT images at 24 h after injection

108 wth plate chondrocytes and in the developing vertebral bodies in the mouse.

109 ed at or below the level of the third sacral vertebral body in all 49 patients with isolated pelvic f

110 As percent vertebral body involvement increased, odds of fracture a

111 CT appearance, lesion location, and percent vertebral body involvement independently predicted fract

112 Accurate annotation of vertebral bodies is crucial for automating the analysis

113 tebra is human-like in overall shape but its vertebral body is somewhat intermediate in shape between

114 attenuation of the trabecular bone of the L5 vertebral body (L5HU) was measured.

115 It determines vertebral body labels by recognizing specific reference

116 ral network model was then trained to output vertebral body landmarks for vertebral height measuremen

117 grams, and their relationships to particular vertebral body levels were recorded.

118 diffuse/homogeneous contrast enhancement of vertebral bodies, low-grade destruction of vertebral bod

119 ate recipients of allogeneic male islets and vertebral body marrow (VBM) from the same donor.

120 pients of cadaver donor liver allografts and vertebral body marrow infusions.

121 Adjacent abnormal vertebral body marrow signal intensity was seen in one (

122 and in a phantom model, visualization of the vertebral body marrow was improved and susceptibility ar

123 safe for the treatment of painful posterior vertebral body metastatic tumors.

124 l dynamic radiographic imaging of the lumbar vertebral body motion.

125 o independent readers visually evaluated all vertebral bodies (n = 163) for the presence of abnormal

126 gh the study of the aortic impression in the vertebral bodies of the spine.

127 measure bone density of thoracic and lumbar vertebral bodies on computed tomographic (CT) images.

128 images, diffuse signal intensity patterns in vertebral bodies on MR images, and rim enhancement of di

129 tebral bodies, heterogeneous signal from the vertebral bodies on T2 TIRM images, well-defined paraspi

130 es, hyperintense/homogeneous signal from the vertebral bodies on T2 TIRM images.

131 e location was related to that of a thoracic vertebral body on frontal and lateral chest radiographs

132 ssiveness, spinal level, location within the vertebral body or posterior elements, involvement of sof

133 e IRE electrode to the posterior wall of the vertebral body or the exiting nerve root were 2.93 mm +/

134 , each consisting of two key components: the vertebral body (or centrum) and the vertebral arches.

135 te cancer cells were either coimplanted with vertebral bodies, or inoculated in the tibiae of immunoc

136 Paraspinous fluid collections and discitis/vertebral body osteomyelitis simulating pyogenic infecti

137 more bilateral symmetric involvement of the vertebral body (P<.01), and continuation of vertebral bo

138 acture (P<.01), bone marrow contusion of the vertebral body (P=.01), muscle strain (P<.01) or tear (P

139 e- and postoperative HU were measured at the vertebral body, pedicle, and spinal cord at three differ

140 Romanus lesions (RLs) and end-plate, diffuse vertebral body, posterior element, and spinous process b

141 Anatomical sites such as the vertebral body, proximal femur, and distal radius are lo

142 ry tests data) and CT images covering lumbar vertebral bodies rather than DXA data via machine learni

143 the torso, defined as the position of the C7 vertebral body relative to the sacrum in a 'birds eye vi

144 toff value of -80 to differentiate edematous vertebral bodies resulted in a sensitivity of 96.3%, spe

145 cant changes in the images of bone marrow in vertebral body scans; with a decrease in the intensity o

146 trated significantly improved performance in vertebral body segmentation and labeling for spinal X-ra

147 TotalSegmentator provided 3D vertebral body segmentation of T1-T10 levels with furthe

148 d bone marrow edema on STIR images from each vertebral body, separately identifying central and later

149 cic spine, involvement of 2 or more adjacent vertebral bodies, severe destruction of the vertebral bo

150 The metastases-to-vertebral body signal intensity ratio (MVR) was calculat

151 .19, 0.34) and between a type 1 endplate and vertebral body spondylolisthesis (PPV, 0.28; 95% CI: 0.2

152 Vacuum disk, facet involvement, vertebral body spondylolisthesis, joint disorganization

153 NAT was measured at the level of the C5 vertebral body, subdivided into posterior (NATpost), sub

154 Anterior vertebral body tethering (AVBT) is a motion-sparing alte

155 icant differences in HU were observed at the vertebral body, the pedicle, and the spinal cord at the

156 and the ubiquitous osteochondrodysplasia of vertebral bodies to the occasional sarcoma in older anim

157 rument could be navigated into the posterior vertebral body tumors with a transpedicular approach.

158 47 tumors) with painful metastatic posterior vertebral body tumors, some of which were radiation ther

159 was assessed by the Hounsfield Unit (HU) in vertebral bodies (VB) and pedicles with and without cort

160 ssed at CT at the level of the 12th thoracic vertebral body via semiautomated threshold-based segment

161 ing penumbra, and bone marrow from the L3-L5 vertebral bodies was contoured on pretreatment FDG PET/C

162 Failure load of the vertebral bodies was determined from destructive biomech

163 anwhile, the development of inner annuli and vertebral bodies was dramatically impaired.

164 furcation and duodenal papilla from adjacent vertebral bodies was measured on 34 cholangiograms, and

165 rea at the fifth, eighth, and tenth thoracic vertebral body was quantified.

166 ion, and morphology of the tibiae and lumbar vertebral bodies were assessed by micro-computed tomogra

167 Vertebral bodies were assessed for incident vertebral fr

168 Vertebral bodies were only mildly affected, but the inte

169 While the vertebral bodies were only moderately affected, the inte

170 Twelve thoracic vertebral bodies were removed from three human cadavers

171 s of transgenic mice were tougher, and their vertebral bodies were stiffer and stronger than those of

172 Lesions located in the vertebral body were excluded.

173 Lesions confined to vertebral body were less frequent (12 cases).

174 marrow, and skeletal muscle adjacent to the vertebral body were present.

175 DBMC, obtained from vertebral bodies, were administered in 101 recipients of

176 painful bone metastases, excluding skull and vertebral bodies, were enrolled in a prospective open-la

177 wer chondrogenic cells within the developing vertebral body, which fail to condense appropriately alo

178 and calculated as a fraction of the adjacent vertebral body width.

179 VNCa images were significantly different in vertebral bodies with and without edema (P < .001).

180 In all cases a destruction of vertebral bodies with end plates loss restriction and co

181 98.2%, and accuracy of 97.6% in the group of vertebral bodies with less than 50% sclerosis and/or air

182 In 18 vertebral bodies with titanium fixation screws and in a

183 moderate amounts of PMMA may escape from the vertebral body with no significant effect on therapeutic

184 ose single-section quantitative CT of the L4 vertebral body with use of a calibration phantom.

185 with marked mineralization were confined to vertebral body, with "ivory vertebra" appearance.

186 UB 10749 is a complete lower lumbar vertebral body, with morphological characteristics consi

187 N, or occurrence of first fracture (eg, hip, vertebral body, wrist).