ライフサイエンスコーパス: mediastinal lymph node

1 h occurs earliest in the local lung-draining mediastinal lymph node.

2 lung-BRMs and CXCR3(+) memory B cells in the mediastinal lymph node.

3 t ILC2s accumulated equally in the recipient mediastinal lymph node.

4 lored DC subset present in the lung-draining mediastinal lymph node.

5 lung and enhanced the T(H)2 response in the mediastinal lymph node.

6 d with a decrease in the number of DC in the mediastinal lymph node.

7 sulted in an abolished T(H)2 response in the mediastinal lymph node.

8 berculosis Ag85B-specific CD4 T cells in the mediastinal lymph node.

9 ungs, it decreased trafficking of DCs to the mediastinal lymph node.

10 pecific CD8+ T cell counts in the spleen and mediastinal lymph nodes.

11 the lungs and central memory T cells in the mediastinal lymph nodes.

12 ive but less specific when CT shows enlarged mediastinal lymph nodes.

13 c bronchoscopy in the evaluation of enlarged mediastinal lymph nodes.

14 ion of pulmonary dendritic cells (DC) to the mediastinal lymph nodes.

15 ells were found consistently in the regional mediastinal lymph nodes.

16 proliferation of fibrous tissue in draining mediastinal lymph nodes.

17 RNA expression and impaired DC homing to the mediastinal lymph nodes.

18 the heart, lung, kidney, and liver, but not mediastinal lymph nodes.

19 lymphatic network enhances fluid drainage to mediastinal lymph nodes.

20 ll as several enlarged hilar and ipsilateral mediastinal lymph nodes.

21 hemagglutinin were primarily observed in the mediastinal lymph nodes.

22 h greater regulatory T cell expansion in the mediastinal lymph nodes.

23 ease in the size of the right hilar mass and mediastinal lymph nodes.

24 ptoms unexpectedly showed high FDG uptake in mediastinal lymph nodes.

25 ased C. neoformans-specific Th2 cells in the mediastinal lymph nodes.

26 e number of DCs carrying OVA in the lung and mediastinal lymph nodes.

27 ung conventional dendritic cells to draining mediastinal lymph nodes.

28 res across the lung epithelium into draining mediastinal lymph nodes.

29 s in the cervical lymph nodes but not in the mediastinal lymph nodes.

30 ncreased numbers of NK cells in the lung and mediastinal lymph nodes.

31 uickly out of the lung and into the thoracic/mediastinal lymph nodes.

32 charge translocate rapidly from the lung to mediastinal lymph nodes.

33 production in blood but not in the affected mediastinal lymph nodes.

34 asized to other lobes of the lung and to the mediastinal lymph nodes.

35 olidation (87%), pleural effusion (88%), and mediastinal lymph nodes (25%).

36 virus-specific CTL response in the draining mediastinal lymph nodes 5 days following infection.

37 munocompetent mice, virus is detected in the mediastinal lymph nodes after elimination of both CD8(+)

38 g naive CD4 T cells appear to migrate to the mediastinal lymph nodes along a CD62L-independent, CCR7-

39 hy; (3) a greater short-axis diameter of the mediastinal lymph node and history of a prior malignancy

40 ium tuberculosis occurs in the lung-draining mediastinal lymph node and requires transport of M. tube

41 After stimulation of mediastinal lymph node and spleen cells with UV-inactiva

42 Mediastinal lymph node and spleen epitope-specific CD8(+

43 significantly enhanced in the lung-draining mediastinal lymph node and spleen, and there is an incre

44 n the spleen, then progressively less in the mediastinal lymph node and the lung.

45 acterized the DC population in the heart and mediastinal lymph nodes and analyzed long-term cardiac i

46 g donor antigen preferentially accumulate in mediastinal lymph nodes and colocalize with MHC II expre

47 The first peak was at day 6 in the mediastinal lymph nodes and correlated with the initial

48 lls isolated from the lung and lung-draining mediastinal lymph nodes and developed new analysis metho

49 ry influenza virus-specific CTL responses in mediastinal lymph nodes and HSI to lethal influenza A vi

50 uppressed the accumulation of T cells in the mediastinal lymph nodes and lung granulomatous regions w

51 regs rapidly accumulate in the lung-draining mediastinal lymph nodes and lungs.

52 nts confirmed their selective trafficking to mediastinal lymph nodes and resulted in activation of T

53 tivation of DN1 T cells was initiated in the mediastinal lymph nodes and showed faster kinetics compa

54 The second peak was at day 18 in both the mediastinal lymph nodes and spleen and correlated with t

55 arise in mesenteric, axillary/brachial, and mediastinal lymph nodes and spleen based on differential

56 influenza-specific CD8 T cells in lymphoid (mediastinal lymph nodes and spleen) and nonlymphoid tiss

57 is of progressively lesser magnitude in the mediastinal lymph nodes and spleen.

58 n with murine gammaherpesvirus 68 differs in mediastinal lymph nodes and spleen.

59 telomerase reverse transcriptase (hTERT) in mediastinal lymph nodes and that a minimally invasive te

60 T cells in the mediastinal lymph nodes and the intramyocardial endothel

61 nasally with MHV-68 is detected first in the mediastinal lymph nodes and then in the cervical lymph n

62 oreover, this drainage can occur directly to mediastinal lymph nodes and there is no interlobar lymph

63 es in murine hearts, pericardial AT, spleen, mediastinal lymph nodes, and bone marrow were quantified

64 of infection, is initially restricted to the mediastinal lymph nodes, and does not involve other lymp

65 nocyte-derived dendritic cell numbers in the mediastinal lymph nodes, and increased T-helper type 2 (

66 n early (36 h-4 d) expansion of Tregs in the mediastinal lymph nodes, and later (12-16 d) increases i

67 7BL/6J mice, MAV-1 DNA was detected in lung, mediastinal lymph nodes, and liver during acute infectio

68 )-specific CD4 T cell response in the lungs, mediastinal lymph nodes, and spleen reached maxima 3-4 w

69 ry antiviral Ab-forming cell response in the mediastinal lymph nodes; and 3) accelerated viral cleara

70 dritic cell (DC) activation and migration to mediastinal lymph nodes are decreased during early infec

71 Mediastinal lymph nodes are the most common site of tumo

72 failed to proliferate as extensively in the mediastinal lymph nodes as in mice infected only with BC

73 VA was presented selectively in the draining mediastinal lymph nodes, as assessed by the comparable p

74 l distribution and morphological patterns of mediastinal lymph nodes, as demonstrated on spiral CT, c

75 ly, the p56 epitope was detected only in the mediastinal lymph nodes at day 6 after infection whereas

76 aortic surgery, the patient had undergone a mediastinal lymph node biopsy.

77 ere is a large right hilar mass and enlarged mediastinal lymph nodes but no pulmonary emboli.

78 ures yet contributed to TH2 expansion in the mediastinal lymph nodes but not in the lungs.

79 ration (EBUS-TBNA) biopsies of the hilar and mediastinal lymph nodes, but the feasibility and usefuln

80 considered the gold standard for staging of mediastinal lymph nodes, but, recently, endobronchial ul

81 d the majority of prion-bearing cells in the mediastinal lymph node by six hours, indicating intranod

82 Mediastinal lymph node cells from Flt3L-treated mice sec

83 The in vitro cytokine secretion of mediastinal lymph node cells was determined using ELISA.

84 was rapid and severe lymphadenopathy of the mediastinal lymph node cluster, which is paradoxical giv

85 there was a marked expansion of cells within mediastinal lymph nodes, comprised mainly of innate lymp

86 nd bronchoalveolar lavage fluid composition, mediastinal lymph node cytokine production, lung histolo

87 igh-affinity ligand CD155 was upregulated in mediastinal lymph node dendritic cells from allergic mic

88 m mass in the right upper lobe with multiple mediastinal lymph node disease ( Fig 1 ).

89 pling, systematic sampling [SS], or complete mediastinal lymph node dissection [MLND]) on DFS and OS

90 ned in a 1:1 ratio to SABR or lobectomy with mediastinal lymph node dissection or sampling.

91 l-cell lung cancer (NSCLC) is lobectomy with mediastinal lymph node dissection or sampling.

92 He then undergoes right upper lobectomy and mediastinal lymph node dissection, which demonstrate no

93 mer(+) populations in the pneumonic lung and mediastinal lymph nodes fell rapidly from peak values, t

94 Mediastinal lymph node fine needle aspiration (MLN-FNA)

95 of 14 lung nodules or masses, 20 (65%) of 31 mediastinal lymph nodes, five (71%) of seven lesions in

96 ta(+) CD44(hi) CD154(+) ) were quantified in mediastinal lymph nodes following airway priming.

97 are retained in the peritoneum and draining mediastinal lymph nodes for a prolonged period following

98 Analysis of a mediastinal lymph node from one patient highlighted the

99 Granulomas and mediastinal lymph nodes from active-disease but not late

100 Mediastinal lymph nodes from airway-sensitized Abcg1(-/-

101 in vivo and likewise detect mKATE2(+) DCs in mediastinal lymph nodes from infected mice.

102 tion and organ damage, including compromised mediastinal lymph node function.

103 bserved in 50%, pleural effusion in 60%, and mediastinal lymph nodes in 30%.

104 rformance of MR imaging in staging hilar and mediastinal lymph nodes in NSCLC on both a per-patient a

105 imately one-third of pathologically negative mediastinal lymph nodes in NSCLC patients express hTERT

106 wn clinical practice.Accurate staging of the mediastinal lymph nodes in resectable non-small-cell lun

107 Such granulomas occur in the lung and the mediastinal lymph nodes, in the heart, and in other vita

108 illus but greatly diminishes their egress to mediastinal lymph nodes independent of neutrophil microb

109 ession of interleukin (IL)-17 transcripts in mediastinal lymph nodes induced by effector cells alone.

110 omography (FDG-PET/CT) imaging for detecting mediastinal lymph node involvement in patients with pote

111 -negative PET-CT results in the diagnosis of mediastinal lymph node involvement were more likely to o

112 l outcomes, including pathologic evidence of mediastinal lymph node involvement, distant metastasis,

113 Unlike examination of mediastinal lymph nodes (LNs), which depends on surgical

114 Therefore, mediastinal lymph nodes may be false-positive on (18)F-F

115 sport of live bacteria from the lungs to the mediastinal lymph node (MDLN).

116 was stratified according to the presence of mediastinal lymph nodes measuring 1 cm or more in the sh

117 cell transfer, the T cells isolated from the mediastinal lymph node (med-LN) of aged animals exhibite

118 electively accumulated in the myocardium and mediastinal lymph nodes (med-LN) of infarcted mice, acqu

119 lymphocytes rapidly redistribute to regional mediastinal lymph nodes (MedLNs) during influenza infect

120 nd, to a lesser extent, in the lung-draining mediastinal lymph nodes (medLNs) of virus-infected mice.

121 ffector T cells from the local lung draining mediastinal lymph nodes (medLNs).

122 es lifelong enlargement of the lung-draining mediastinal lymph nodes (medLNs).

123 Sensitivity for detecting mediastinal lymph node metastases, using pathologic conf

124 with suspected lung cancer, the presence of mediastinal lymph node metastasis is a critical determin

125 ophages and dendritic cells recruited to the mediastinal lymph node (MLN) after infection.

126 tention of virus-specific CD8 T cells in the mediastinal lymph node (MLN) and continuing recruitment

127 Mediastinal lymph node (MLN) enlargement on chest comput

128 the relationship between RF seropositivity, mediastinal lymph node (MLN) features, and disease progr

129 atic proliferation were largely found in the mediastinal lymph node (mLN), rather than the airways; h

130 way in immune activation of cardiac-draining mediastinal lymph node (MLN).

131 er detection of memory T cells (mCTL) in the mediastinal lymph nodes (MLN) or spleen by peptide-based

132 inophil populations in the airways, lung, or mediastinal lymph nodes (mLN) were characterized by FACS

133 gene expression in vivo, lungs, spleens, and mediastinal lymph nodes (MLN) were harvested from MHV-68

134 sponses were measured in the lungs, draining mediastinal lymph nodes (MLN), and spleens.

135 yte (CTL) precursors (CTLp) in the regional, mediastinal lymph nodes (MLN).

136 the respiratory tract or after migration to mediastinal lymph nodes (mLN).

137 ent activation and migration to the draining mediastinal lymph nodes (MLNs) during IV infection.

138 ry CD8(+)T cell populations in lung-draining mediastinal lymph nodes (mLNs) from circulating naive or

139 0) levels remained elevated in the lungs and mediastinal lymph nodes (mLNs) throughout the acute LCMV

140 32/Kb epitopes, we detected APCs in draining mediastinal lymph nodes (MLNs), in cervical lymph nodes,

141 ce, by residual antigen in the lung-draining mediastinal lymph nodes (MLNs).

142 The mediastinal lymph node NK cells were activated, expressi

143 xamined the T(H)2 cytokine production in the mediastinal lymph nodes of DEP-exposed CCR2 knockout and

144 CD11c+ DCs from the mediastinal lymph nodes of infected mice selectively sti

145 l (AFC) response in cervical lymph nodes and mediastinal lymph nodes of mice to intranasal influenza

146 -specific CD4(+) T-cell proliferation in the mediastinal lymph nodes of mice.

147 ma-producing CD4(+) T cells in the lungs and mediastinal lymph nodes of the CXCR3-deficient strain wa

148 ic analysis of CD11c(+) dendritic cells from mediastinal lymph nodes of the infected mice showed that

149 al DNA was detected in the PBMCs, lungs, and mediastinal lymph nodes of two lambs sacrificed 9 months

150 mic sites and morphologic characteristics of mediastinal lymph nodes on spiral computed tomography fo

151 MATERIAL/METHODS: Anatomical distribution of mediastinal lymph nodes on spiral CT was reviewed in 39

152 h alloantigen-induced expression of IL-10 in mediastinal lymph node or splenic T cells, intragraft ex

153 The NKT cells were not observed in mediastinal lymph nodes or granulomatous lesions.

154 those in the spleen, bronchoalveolar lavage, mediastinal lymph nodes, or lung.

155 eaves calcified pulmonary nodules, calcified mediastinal lymph nodes, or splenic calcifications.

156 l recruitment mainly occurs in the posterior mediastinal lymph node (pMLN).

157 Lastly, mediastinal lymph node re-stimulation experiments showed

158 In contrast, mediastinal lymph nodes remained nonluminescent througho

159 mputed tomography screening with and without mediastinal lymph node resection (MLNR) under an Institu

160 Immunohistochemistry of mediastinal lymph nodes reveals altered architecture, ex

161 n 1 cm by computed tomography scan underwent mediastinal lymph node sampling to rule out N2 disease.

162 ted to the injured myocardium and migrate to mediastinal lymph nodes shortly after reperfusion.

163 viable B anthracis was present in postmortem mediastinal lymph node specimens.

164 eroallergy, IgE ASCs localized to the lungs, mediastinal lymph nodes, spleen, and bone marrow (BM).

165 SCLC, endoscopic US-guided FNAB had superior mediastinal lymph node staging accuracy compared with en

166 n, administration of chemotherapy, number of mediastinal lymph node stations involved, histology, and

167 d with CT in the evaluation of the hilar and mediastinal lymph-node status in patients with lung canc

168 irmed node-negative disease in the hilar and mediastinal lymph nodes, sublobar resection was not infe

169 fragments, and granular antigen-staining in mediastinal lymph nodes, surrounding soft tissues, and p

170 ostic accuracy in the evaluation of enlarged mediastinal lymph nodes suspected of harboring malignanc

171 cells and more IFN-gamma from PBMC, BAL, and mediastinal lymph nodes than monkeys with latent infecti

172 f) of naive CD4 T cells appears to enter the mediastinal lymph nodes through a blood-to-lung-to-lymph

173 lumen and did not need to spread through the mediastinal lymph nodes to cause a systemic infection.

174 ided FNAB is accurate and safe for biopsy of mediastinal lymph nodes to stage NSCLC, establish a prim

175 fic CD4+ and CD8+ T cell precursors from the mediastinal lymph nodes to the spleen.

176 This study aimed to determine whether the mediastinal lymph node/tumour ratio (NTR) of the standar

177 or extracellular vesicle (EV) trafficking to mediastinal lymph nodes via the pleural space.

178 as early as 2 days post-IN inoculation; the mediastinal lymph node was an early site of replication

179 initial response to Ag at day 3 (d3) in the mediastinal lymph node was exclusively high avidity.

180 Negative regulation of cells in the mediastinal lymph node was minimal compared with that pr

181 r regions of p16 and CDH13 in both tumor and mediastinal lymph nodes was associated with an odds rati

182 Staging with mediastinal lymph nodes was correct by using PET in 67 (

183 Sampling of mediastinal lymph nodes was performed using mediastinosc

184 Using this novel approach to study DCs in mediastinal lymph nodes, we observed that most blood-der

185 airways (bronchoalveolar lavage), lung, and mediastinal lymph node were examined 10 d postinfection

186 FNAB in distinguishing benign from malignant mediastinal lymph nodes were 96%, 100%, 98%, 94%, and 10

187 7 subregions of the primary lung tumor and 4 mediastinal lymph nodes were analyzed.

188 Mediastinal lymph nodes were sampled with EUS-FNA in pat

189 he early AFC response to infectious virus in mediastinal lymph nodes, while IgG expression was more f

190 and/or positron emission tomography-positive mediastinal lymph nodes) who underwent a staged procedur

191 ission tomography detected metastases to the mediastinal lymph nodes with accuracies of 93, 81, and 8

192 oscopy to sample peripheral lung lesions and mediastinal lymph nodes with standard bronchoscopic inst

193 h2, Th17 cells, and Tregs, in the spleen and mediastinal lymph nodes, with expansion of splenic antig

194 dritic cells (DCs) in lung and lung-draining mediastinal lymph nodes, with lung CD11b(+) DCs displayi

195 in the lungs and the presence of bacteria in mediastinal lymph nodes, with necrosis and inflammation.