ライフサイエンスコーパス: left lung

1 n NTM infection was the medial aspect of the left lung.

2 0 to 0.4 on the right lung and to 0.6 on the left lung.

3 ge analysis of a histological section of the left lung.

4 ster, extensively involving all lobes of the left lung.

5 and positions of the left ventricle and the left lung.

6 h PET scores > 1, and in 92% (12/13) of such left lungs.

7 section and point counting for the right and left lungs.

8 y (right lung: 92.5% vs 65.7%; p < 0.001 and left lung: 83.6% vs 71.6%; p = 0.097).

9 The DVR did not change in the left lung after endotoxin.

10 andard operative techniques, four orthotopic left lung allografts were performed using MHC-matched, m

11 Left lung allotransplantation was performed, and recipie

12 ung wrap-around was removed by assigning the left lung an attenuation coefficient which matched that

13 , awake sheep breathing 100% nitrogen to the left lung and 100% oxygen to the right lung.

14 wed progressive enlargement of the remaining left lung and an increase in tissue density.

15 ured 30 minutes after transplantation of the left lung and exclusion of the right lung from the circu

16 Despite reduced flow and pressure to the left lung and increased flow and pressure to the right l

17 e left ventricle (LV), right ventricle (RV), left lung and right lung as proxy for arterial blood FDG

18 counts were detected exclusively in 6.4% of left-lung and 12.1% of right-lung samples.

19 experimental needle (five right lungs, five left lungs), and half were performed by using a standard

20 ted that in 75%-90% of PET 82Rb patients the left lung appeared to wrap around the anterior aspect of

21 For the lung dose computation, we used the left lung as the representative lung volume, to compensa

22 eft main stem bronchus was needed to relieve left lung atelectasis.

23 nuated liver injury in a model of upper lobe left lung autotransplant in pigs.

24 ght swines each were submitted to upper lobe left lung autotransplant.

25 lung been sampled and in 16.7% had only the left lung been sampled.

26 nd mortality from cancer of the right or the left lung decades later.

27 ter 14 days of persistent atelectasis of the left lung despite thorascopic decortication and multiple

28 For this purpose, female pigs received male left lungs either following 3 h of EVLP or retrieved usi

29 tic right lungs and 75% (12/16) of silicotic left lungs; fibrosis scores > 1 were measured in 91% (10

30 oped persistent necrotizing pneumonia of the left lung following exchange transfusion for acute chest

31 f continuous positive airway pressure to the left lung for 48 hrs.

32 Unilateral clamping of the left lung for 90 mins followed by 60 mins of reperfusion

33 oxia, LPA stenosis reduced blood flow to the left lung from 5.8+/-0.6 to 1.5+/-0.4 ml/100 mg/min, and

34 s in normoxic rats reduced blood flow to the left lung from 9.8+/-0.9 to 0.8+/-0.4 ml/100 mg/min (sha

35 fied a murine model of CLAD and transplanted left lungs from BALB/c donors into B6 recipients that we

36 Left lungs from normal and LCDH pups were compared at fe

37 re given with the donor lung flush, prior to left lung graft reperfusion, or both.

38 Left lung grafts were performed using class I-disparate

39 tin may mediate early primary graft failure, left lungs harvested from male Lewis rats were preserved

40 In a left lung hilar-ligation model of IRI in mice, we found

41 ood flow decreased by 62 +/- 8 (SEM)% during left lung hypoxia and remained stable during repeated hy

42 for changes in cardiac index) in response to left lung hypoxic challenges performed at baseline and a

43 us pulmonary venous return from the right or left lung into the inferior vena cava, through drainage

44 Animals underwent left lung ischemia.

45 The differences between the methods in the left lung lobes were minor with a mean difference of -0.

46 The differences between the methods in the left lung lobes were minor, with a mean difference of -0

47 The ratio of right to left lung mass, association of pleural effusion with oth

48 atios changed little with the filling of the left lung (mean septal-to-lateral wall count ratio = 1.0

49 d by surgical orthotopic implantation in the left lung of nude mice.

50 Left lungs of Brown Norway rats were transplanted into f

51 at 20% VC (P < .0001) and 60% VC (P < .0001, left lung only).

52 s related to MDR-TB were the upper right and left lung (p = 0.00).

53 o NTM infection was the medial aspect of the left lung (p = 0.01), and the lesion extent was also cor

54 n 85% DS stenosis produced a 61% increase in left lung perfusion and a 50% decrease in cardiac energy

55 le pressure dropped by approximately 10% and left lung perfusion decreased by approximately 8% compar

56 ause both resulted in only a 12% decrease in left lung perfusion.

57 striction (HPV), we measured the increase in left lung pulmonary vascular resistance (LPVR) before an

58 n of HPV during endotoxemia, the increase in left lung pulmonary vascular resistance (LPVR) before an

59 In eight anesthetized dogs, left lung saline lavage was performed until Pa(O(2))/FI(

60 ung sSI was significantly lower than that of left lung sSI (at EE: 41 +/- 6 vs 47 +/- 6 and at EI: 39

61 cantly lower than that at EE (P < .001), and left lung sSI at EE linearly decreased with age (r = -0.

62 IS; there was a 43.8% and 55.3% increase for left lung tidal volume and right lung tidal volume (P <

63 ments were performed using an orthotopic rat left lung transplant model.

64 In syngeneic murine left lung transplant recipients, preexisting LRAs worsen

65 The patient had undergone left lung transplantation 8 years prior for pulmonary fi

66 ent pigs (n = 12) were randomized to undergo left lung transplantation from male donors either using

67 Orthotopic left lung transplantation was performed in Lewis rat rec

68 Unilateral left lung transplantation was performed in mice across v

69 itution, mixed chimeras underwent orthotopic left lung transplantation with donor-specific and third-

70 Rats were subjected to syngeneic left lung transplantation, and acute rejection was induc

71 Using a novel mouse model of orthotopic left lung transplantation, we demonstrate that selective

72 urvival in a preclinical model of orthotopic left lung transplantation.

73 r the animals underwent syngeneic orthotopic left lung transplantation.

74 Left lung transplants: the control group (group 1) recei

75 gation model of IR injury was used, in which left lungs underwent 1 hour of ischemia and 2 hours of r

76 t lung, eNOS protein and mRNA content in the left lung was decreased by 32+/-7 and 54+/-13%, respecti

77 The left lung was divided from the heart-lung block, transpl

78 Postmortem, the left lung was excised and inflated three times to total

79 diagnosis of intralobar sequestration of the left lung was made.

80 The entire left lung was ventilated with pure nitrogen, whereas the

81 ncentrations to the nitrogen, with which the left lung was ventilated.

82 orty-eight hours after lung transplantation, left lungs were collected and wet-to-dry ratio, Western

83 Left lungs were harvested and infused via the pulmonary

84 Then, the left lungs were procured after 24 hr of in vivo incubati

85 For assessment and preservation, left lungs were ventilated with 100% oxygen (NHBD(2)NO w

86 peatedly tested by unilateral hypoxia of the left lung with 100% nitrogen.

87 The 5 cases without left lung wrap-around did not show hot lateral wall (mea

88 mulation model to determine if patients with left lung wrap-around displayed consistent artifacts in

89 With left lung wrap-around removed in the same 10 patients, r

90 In these same cases, the influence of left lung wrap-around was removed by assigning the left

91 y selected clinical PET 82Rb studies without left lung wrap-around were also processed with our model

92 In all 10 cases with left lung wrap-around, reconstructed SPECT images showed

93 omly selected clinical PET 82Rb studies with left lung wrap-around.