ライフサイエンスコーパス: skeletal survey

1 res related to child abuse than did baseline skeletal survey.

2 children aged 12 to 24 months should undergo skeletal survey.

3 for which is magnetic resonance imaging, and skeletal survey.

4 Fourteen patients also underwent follow-up skeletal survey.

5 hniques have gradually replaced conventional skeletal surveys.

6 In studies examining children who underwent skeletal surveys, a single fracture (positive LR, 5.9 [9

7 f abuse, and appropriateness of performing a skeletal survey (adjusted odds ratio [OR], 8.75; 95% con

8 Oblique views of the hands and follow-up skeletal surveys aided in detection of these injuries.

9 Traditional skeletal survey and bone scans have sensitivity limitati

10 The baseline skeletal survey and PET images obtained in 22 patients y

11 ikelihood of abuse, differential ordering of skeletal surveys and reporting of suspected abuse were m

12 Radiographic skeletal surveys and whole-body bone scintigraphy study

13 l of 156 fractures were detected at baseline skeletal survey, and 200 fractures were detected at PET.

14 s in the United States in which radiographic skeletal surveys are performed for suspected infant (<1

15 omicide, (b) at least one CML was evident at skeletal survey, (c) CMLs were confirmed at autopsy, and

16 e organs was less favorable for radiographic skeletal survey compared to bone scintigraphy.

17 patients in whom both baseline and follow-up skeletal survey data were available, which served as the

18 nly 30 rib fractures (36%) were visible with skeletal survey examination.

19 All 11 infants underwent skeletal surveys; five infants also underwent nuclear bo

20 tric radiologists independently reviewed the skeletal surveys for rachitic changes at the wrists and

21 mpared with the reference standard, baseline skeletal survey had sensitivities of 72% for the detecti

22 es agreed on the indication for radiological skeletal survey, head computed tomography, and head magn

23 iatric radiologist interpreted the follow-up skeletal survey images in conjunction with the baseline

24 The initially obtained skeletal survey images were interpreted blindly by a ped

25 lume, radiographic equipment, and details of skeletal survey imaging practices.

26 eased sensitivity compared with conventional skeletal survey in the detection of bone disease, which

27 Our results support the use of radiographic skeletal survey in the initial diagnosis of LCH.

28 U.S. pediatric health care facilities, most skeletal surveys in cases of suspected infant abuse incl

29 (Fig 3B) were obtained as part of a limited skeletal survey, keeping in mind the possible skeletal c

30 nd pelvis were obtained as part of a limited skeletal survey, keeping in mind the possible skeletal c

31 Data suggest that skeletal surveys may be modified to limit radiation expo

32 A skeletal survey of the patient was performed and is show

33 A skeletal survey of the patient was performed.

34 studied with high-detail, pre- or postmortem skeletal surveys, or both, and radiography of specimens,

35 rs) were significantly more likely to have a skeletal survey performed compared with their white coun

36 the hands and feet should be included in the skeletal survey performed for suspected child abuse.

37 atients who underwent baseline and follow-up skeletal survey), PET had sensitivities of 85% for the d

38 ed for those of bone scintigraphy, follow-up skeletal survey, spinal magnetic resonance imaging, cran

39 ne marrow lesions, ranging from conventional skeletal survey to whole-body CT, PET/CT, and MRI, the I

40 Subsequently, a full skeletal survey was ordered.

41 signs or symptoms of head injury for whom a skeletal survey was performed.

42 Follow-up skeletal survey with limited views should be performed i