ライフサイエンスコーパス: thoracic spine

1 SCA complicated with spondylodiscitis in the thoracic spine.

2 n the lumbar spine and 221 (59%) were in the thoracic spine.

3 arches of the vertebrae in the cervical and thoracic spine.

4 especially in the annulus fibrosus and lower thoracic spine.

5 racic spine and contrast-enhanced MRI of the thoracic spine.

6 a gracile build and severe scoliosis of the thoracic spine.

7 d spinal canal included unenhanced CT of the thoracic spine and contrast-enhanced MRI of the thoracic

8 reported in other MSP1 cohorts which are the thoracic spine and ribs (75%), pelvis (75%), shoulder (7

9 failure resulting from abnormalities of the thoracic spine and ribs.

10 umbar and pelvic) studies, especially in the thoracic spine and thoracic wall, pelvic and shoulder gi

11 al findings in the cervical spine, 16 in the thoracic spine, and 23 patients in the lumbosacral spine

12 ic locations: diaphragm, aortic arch, heart, thoracic spine, and lung apices.

13 capular dyskinesis test, head, shoulder, and thoracic spine angle were measured at baseline, post-tes

14 potentials via electrical stimulation of the thoracic spine, ensuring volleys reached the spinal cord

15 d spinal canal included unenhanced CT of the thoracic spine (Fig 1) and contrast-enhanced MRI of the

16 ine (Fig 1) and contrast-enhanced MRI of the thoracic spine (Fig 2).

17 Early fixation is preferred in patients with thoracic spine fractures because it allows earlier mobil

18 cks and foraminal epidural injections in the thoracic spine from June 27, 1997 to December 29, 2007 w

19 Risk factors for longer hospital stays were thoracic spine injury, older age, higher CCI, and male s

20 pondylodiscitis included: involvement of the thoracic spine, involvement of 2 or more adjacent verteb

21 Unenhanced thoracic spine magnetic resonance (MR) imaging was perfo

22 Follow-up thoracic spine MRI (Fig 3) was performed 2 months after

23 Follow-up thoracic spine MRI was performed 2 months after the init

24 IDC was most common in the lower thoracic spine, occurring in 275 (60%) of 459 disks.

25 in upper, middle, and lower segments of the thoracic spine (P <.05) but not in the lumbar spine (P =

26 o our facility for evaluation of findings on thoracic spine radiographs obtained at a peripheral hosp

27 a measure of the position of the top of the thoracic spine relative to the sacrum) were analysed usi

28 y magnetic (motor cortex) and/or electrical (thoracic spine) stimulation allowing volleys to arrive a

29 ical spine pain co-occurred with pain in the thoracic spine (tau = 0.31), lumbar spine (tau = 0.45),

30 wall tenderness, (5) sternal tenderness, (6) thoracic spine tenderness, and (7) scapular tenderness.

31 nal axons by electrical stimulation over the thoracic spine (thoracic MEPs), in the quadriceps femori

32 causes fluorescent signal intensity over the thoracic spine to increase from 0 to 60 minutes after in

33 spleen, kidney, muscle, abdominal fat, lower thoracic spine, vertebral body, and humeral head.

34 (fl/fl) mice had a severely deformed curved thoracic spine, with an associated loss of trabecular bo

35 ic resonance imaging [MRI]) of the lumbar or thoracic spine within 6 weeks of the index visit.