コーパス検索結果 (1語後でソート)
通し番号をクリックするとPubMedの該当ページを表示します
1 Predictors of PTT, ECA, and granuloma.
2 ignals are physically segregated within each granuloma.
3 ages undergoing apoptosis in the tuberculous granuloma.
4 atory pathways during the development of the granuloma.
5 hage phagosome and later within the necrotic granuloma.
6 phage recruitment to the forming tuberculous granuloma.
7 pact that this has on the progression of the granuloma.
8 tion of protective lymphoid follicles within granulomas.
9 haracterized by the presence of noncaseating granulomas.
10 ast aggregates, forming fungal-induced glial granulomas.
11 ive host hemostasis through the formation of granulomas.
12 He differed significantly between tumors and granulomas.
13 wed abundance of HIF-1alpha in the center of granulomas.
14 and T cells drive [(64)Cu]-LLP2A avidity in granulomas.
15 a mouse model of human-like necrotic TB lung granulomas.
16 rculosis is the formation of macrophage-rich granulomas.
17 mycobacteria trigger formation of organized granulomas.
18 he HIV infection progressively changes these granulomas.
19 n source are unable to sustain infections in granulomas.
20 pulate Mycobacterium tuberculosis-associated granulomas.
21 e generated detailed molecular maps of human granulomas.
22 population dynamics and heterogeneity within granulomas.
23 bers and reduced CD4(+) T-cell counts within granulomas.
24 nt for long-term M. tuberculosis survival in granulomas.
25 lular response, and cytokine presence within granulomas.
26 nd monocytes, resulting in reduced number of granulomas.
27 rization, function, and bacterial control in granulomas.
28 developed, with foreign-body giant cells and granulomas.
29 vestigated vessel normalization in rabbit TB granulomas.
30 duce the morphological hallmarks of human TB granulomas.
31 nificantly higher concentration of p-CREB in granulomas.
32 ulting in chronic infection and formation of granulomas.
33 increased organ burden in mouse cryptococcal granulomas.
34 echanisms driving dissemination from TB lung granulomas.
35 re to alpha-MSH compared with saline treated granulomas.
36 lung bacterial burdens and poorly organized granulomas.
37 bout the processes that initiate fibrosis in granulomas.
38 y immune parameters associated with human TB granulomas.
39 ), a disease characterized by development of granulomas.
41 everal novel roles for IL-10 in tuberculosis granulomas: 1) decreased levels of IL-10 lead to increas
42 ne findings were presence of >/=1 peripheral granulomas (57.1%), vasculitis (57.1%), vitreoretinal tr
45 ssion was significantly reduced in developed granulomas after exposure to alpha-MSH compared with sal
46 g to bacteria and infected cells leaving the granuloma and disseminating, either resulting in additio
47 llular Mtb, and are efficiently delivered to granulomas and extracellular mycobacterial cords in vivo
49 es are among the most abundant cell types in granulomas and have been shown to serve as both critical
50 haracterized by the presence of noncaseating granulomas and is usually treated successfully with immu
51 tes, but there were immunological changes in granulomas and lymph nodes from anti-IL-10-treated anima
52 on and increased cytokine production in lung granulomas and lymph nodes from IL-10-neutralized animal
54 f E-cadherin in macrophages disorganized the granulomas and protected the fish, introducing new ideas
55 Here, we demonstrate CD1b expression in TB granulomas and reveal a central role for meromycolate ch
58 espectively), followed by chronic scleritis, granuloma, and chalazion (14.25, 14.25, and 14.25%, resp
62 s, found within Mtb-infected macrophages and granulomas, and can, by encapsulation of a second antibi
63 alled integrin alpha4beta1) binding cells in granulomas, and compared [(64)Cu]-LLP2A with [(18)F]-FDG
64 or host survival, containment of bacteria in granulomas, and control of bacterial burdens in vivo.
66 reflecting the compartments of macrophages, granulomas, and open cavities as well as parameterizing
67 d granulomas that shared features with human granulomas, and prolonged Mtb containment with unilatera
69 erin- and Mycobacterium tuberculosis-induced granulomas, and that infection results in lymph vessel s
71 infected with S. mansoni had disrupted liver granuloma architecture and increased mortality, which in
72 ulosis infected mice led to a change in lung granuloma architecture, characterized by a marked decrea
78 ediated antileishmanial mechanism, and (iii) granulomas are not necessarily hallmarks of protective a
79 ize that (i) recruited mononuclear cells and granulomas are not required to control infection or resp
83 munologically restrain bacteria growth, some granulomas are unable to control Mtb growth, leading to
84 nce in mycobacteria-which models tuberculous granulomas-are partly determined by a mechanism of tRNA
85 monstrated hepato-splenomegaly with multiple granulomas as well as ascites and a left-sided pleural e
86 oles in (i) mononuclear cell recruitment and granuloma assembly and maturation, (ii) initial control
87 as IFN-gamma and TNF-alpha are required for granuloma assembly during M. avium infections in mice.
88 CCL2, CCL5) or downregulate (CXCL9) initial granuloma assembly, (iii) may enhance (CCL2, CCL5) or hi
89 nfection or respond to Sb chemotherapy, (ii) granuloma assembly, control of infection, and Sb's effic
90 i, CD8(+) T cell mechanisms are required for granuloma assembly, macrophage activation, intracellular
93 al inhibition of the Vegf pathway suppresses granuloma-associated angiogenesis, reduces infection bur
94 edict that MMT may be a mechanism underlying granuloma-associated fibrosis and warrants further inves
99 s in TB, we used a computational model of TB granuloma biology to identify factors that drive fibrosi
100 rophages undergo secondary necrosis, causing granuloma breakdown and increased mycobacterial growth.
101 -type mice, most bacteria are within iNOS(+) granulomas, but in T-bet(-/-) mice, most bacteria are ou
102 y metabolically active inflammatory cells in granulomas, but lacks specificity for particular cell ty
103 increased host survival, suggesting that the granuloma can also serve a bacteria-protective role.
104 ma protein expression was found in developed granulomas comparing to microparticle unchallenged PBMCs
105 tuberculosis (Mtb) HN878 induces human-like granulomas composed of bacilli-loaded macrophages surrou
108 hallmark of pathogenesis is the formation of granulomas containing multinucleated giant cells (MNGCs)
109 fic polarization and plasticity, or why some granulomas control bacteria and others permit bacterial
110 erstanding M. tuberculosis metabolism within granulomas could contribute to reducing the lengthy trea
111 ed a large in silico repository of in silico granulomas coupled to lymph node and blood dynamics and
112 duction, and other phenotypic changes within granulomas, demonstrating the HIV infection progressivel
113 fferent immune landscapes of M. tuberculosis granulomas depending on the time after infection, the hi
116 be, Pagan et al. (2015) reveal that necrotic granulomas develop when macrophage supply is insufficien
119 n spleen, liver, and lungs and smaller liver granulomas during 60 d of infection compared with wild-t
120 xtrusion (most commonly), tube displacement, granuloma, ectropion, slit punctum, fistula, and infecti
124 isseminating, either resulting in additional granuloma formation (local or non-local) or spread to ai
125 ent-based computational model that simulates granuloma formation and function, FQ plasma and tissue p
127 ction of the liver, spleen, and lymph nodes; granuloma formation and hepatosplenomegaly; and early in
128 In IFN-gamma(-/-) mice, there is deficient granuloma formation and inducible NO synthase (iNOS) ind
130 te decades of study, the molecular basis for granuloma formation and restriction of chronic pathogens
131 ma reverses this, coincident with subsequent granuloma formation and substantially extends survival w
133 er of unknown cause that is characterized by granuloma formation in affected organs, most often in th
135 vivo cytokine production, gross pathology or granuloma formation in lungs from M.tb DK9897 infected a
137 cumulation, local T cell immune response and granuloma formation in the lungs indicate that the infla
141 m marinum model, we found that mycobacterial granuloma formation is accompanied by macrophage inducti
142 lomas in the mouse model and have shown that granuloma formation is dependent upon the enzyme sphingo
143 e transparent larval zebrafish, we show that granuloma formation is intimately associated with angiog
144 gest that the eggshell inhibits foreign body granuloma formation long enough for the miracidium to ma
145 ult anti-M. marinum responses induced active granuloma formation with abundant T cell infiltration an
146 quent decreased NO expression and/or by poor granuloma formation with consequent decreased hypoxic st
147 f E-cadherin function resulted in disordered granuloma formation, enhanced immune cell access, decrea
148 erial burden is dependent on macrophages and granuloma formation, providing the first in vivo experim
149 mensional cell culture model of tuberculosis granuloma formation, using bioelectrospray technology.
163 anulomas in TB, we analyzed the proteomes of granulomas from subjects with tuberculosis in an unbiase
165 d a role for PknG in the formation of stable granuloma, hallmark structures of latent tuberculosis.
166 ppressive cytokine IL-10 at the level of the granuloma has proven difficult because of lesional heter
167 Understanding the pathogenesis of leprosy granulomas has been hindered by a paucity of tractable e
169 : 1) I-RL (n = 14), 2) peri-implant pyogenic granuloma (I-PG) (n = 5), 3) peri-implant peripheral gia
170 = 5), 3) peri-implant peripheral giant cell granuloma (I-PGCG) (n = 9), 4) T-RL (n = 44), 5) tooth-a
171 accine has been associated with chronic skin granuloma in 3 children with primary immunodeficiency.
172 T), eyelid contour abnormalities (ECAs), and granuloma in the 2 most common TT surgery procedures: po
173 tion in the Evicel group, 1 case of pyogenic granuloma in the Tisseel group, and no complications in
174 uences of vascularization of the tuberculous granuloma in the zebrafish-Mycobacterium marinum infecti
176 The effects of B cell depletion varied among granulomas in an individual animal, as well as among ani
178 ty of mice and during the formation of liver granulomas in mice infected with Schistosoma mansoni.
182 adenopathies in the internal mammary chain; granulomas in the capsule of the implant, which in some
183 ns Deltagcs1) which can be contained in lung granulomas in the mouse model and have shown that granul
184 nscript networks at <10 mum in C57BL/6 mouse granulomas increase complexity with time after infection
185 of CD3(+) T cells decreased as the stage of granuloma increased from stage I to stage IV (P < 0.001)
186 ction of cows with M. bovis, as the stage of granuloma increases from stage I to stage IV, the immuno
187 oma maturation (CCL2, CCL5), (v) may exert a granuloma-independent action that enables self-cure (CCL
189 t response to Histoplasma capsulatum because granulomas induced by this pathogenic fungus develop hyp
191 ) LC treatment resulted in fewer bladder egg granuloma-infiltrating macrophages, eosinophils, and T a
192 wever, macrophage-intrinsic pathways driving granuloma initiation and maintenance remain elusive.
193 le control of pulmonary bacterial burden and granuloma integrity, whereas TLR2 signaling on nonhemato
195 he model incorporated human immune response, granuloma lesions, multi-drug antimicrobial chemotherapy
196 ics and developed an in silico tool to scale granuloma level results to a full host scale to identify
197 the efficacy of MXF, LVX and GFX at a single granuloma level, we integrate computational modeling wit
199 controls, M. canettii-infected mice yielded granuloma-like lesions for 4/4 lungs at days 14 and 28 p
200 A PUFA-enriched Western diet triggers focal granuloma-like neutrophilic enteritis in mice that lack
201 te a host-pathogen interaction that controls granuloma macrophage polarization and long-term pathogen
203 or necrosis factor (TNF) signaling limits M2 granuloma macrophage polarization, thereby restricting S
205 al.) to shift the balance between M1 and M2 granuloma macrophages and resist TNF-mediated clearance
211 sh model, Cronan et al. (2016) now show that granuloma macrophages undergo reprograming events involv
213 10) early parasite control, (iv) may promote granuloma maturation (CCL2, CCL5), (v) may exert a granu
215 A crystallizes in the kidney; (2) UA crystal granulomas may form due to pre-existing CKD; and (3) pro
218 nti-inflammatory properties in this in vitro granuloma model, which is an effect mediated by inductio
222 e to pulmonary Mtb, leading to poorly formed granulomas, more severe lung pathology, and increased my
224 ression is not induced in the lungs and lung granulomas of animals exhibiting latent tuberculosis inf
237 le of IL-33 and its receptor ST2L in hepatic granuloma pathology induced by Schistosoma japonicum inf
238 emonstrate that IL-33 contributes to hepatic granuloma pathology through induction of M2 macrophages
241 to pre-existing CKD; and (3) proinflammatory granuloma-related M1-like macrophages may drive UA cryst
242 itiated carcinogenesis instruct a long-lived granuloma-resident macrophage differentiation program th
245 ldren, suggests that ocular surface pyogenic granulomas respond to topical timolol treatment, which h
246 ues in acute infection, analyzing individual granulomas revealed that B cell depletion resulted in al
247 pression (Foxp3, Il10), whereas those in the granuloma rims associate with activated T cells and macr
248 proach, suggest that IL-10 at the individual granuloma scale is a critical regulator of lesion outcom
249 e site of infection (e.g., lung) at a single granuloma scale with blood level readouts that can be tr
250 metabolite- and gene-scale perturbations to granuloma-scale outcomes and predicting mechanisms of st
251 To explore how these adaptations influence granuloma-scale outcomes in vivo, we present a multiscal
253 an 200 cells per muL) detection of choroidal granulomas should be accepted as evidence of disseminate
258 rved increased mycobacterial burden, loss of granuloma structure, and increased progression of TB dis
259 ) mice, MIIG mice still develop well-defined granulomas, suggesting that IFN-gamma-mediated MPhi acti
261 l co-cultures, while the volume of pulmonary granulomas surrounding omega1-mutated eggs following tai
262 T-RL (n = 44), 5) tooth-associated pyogenic granuloma (T-PG) (n = 21), and 6) tooth-associated perip
264 s receiving stenting developed postoperative granuloma than those who did not (87% versus 63%, p = 0.
265 macrophages, resulting in the formation of a granuloma that ruptures into the airways to reinitiate t
266 ith laboratory-adapted Mtb H37Rv resulted in granulomas that are characterized by unorganized cluster
267 We show that STm persists within splenic granulomas that are densely populated by CD11b(+)CD11c(+
268 mastine is also effective within the complex granulomas that are the hallmark of mycobacterial infect
269 eral CD4(+) T-cell depletion correlated with granulomas that contained fewer CD4(+) and CD8(+) T cell
270 tigens secreted through the eggshell trigger granulomas that facilitate egg extrusion into the enviro
271 Pathology to the human host results from granulomas that form around eggs trapped in the liver an
272 eneous bacterial burdens, well-circumscribed granulomas that shared features with human granulomas, a
275 fection induces arginase-1-expressing type 2 granulomas, thereby increasing inflammation and TB disea
276 lecule delivery, and decreases hypoxia in TB granulomas, thereby providing a potential avenue to impr
277 t FTY720 reactivates cryptococcosis from the granuloma through a S1P receptor 3-mediated mechanism an
278 , and bacterial populations within each lung granuloma throughout the course of infection and is cali
279 ient immune reaction, and directionally from granuloma to the central veins, suggested that substance
280 0 to the immunological balance necessary for granulomas to control bacterial burden and disease patho
281 ildren with acquired ocular surface pyogenic granulomas treated at Boston Children's Hospital from 20
282 Finally, macaques develop the spectrum of granuloma types seen in humans, providing a unique oppor
287 is infection in humans triggers formation of granulomas, which are tightly organized immune cell aggr
288 in accumulates within the periphery of these granulomas, while cleaved amyloid beta (Abeta) peptides
289 aB were significantly increased in developed granulomas, while expression of p-CREB was not changed.
290 nderstanding antibiotic dynamics within lung granulomas will be vital to improving and shortening the
291 confirmed the presence of a 3.8 mm parietal granuloma with a few calcifications in the left eye.
292 active TB in humans a spectrum of pulmonary granulomas with central necrosis and hypoxia exists.
293 tissues, and immunohistochemical analysis of granulomas with known [(64)Cu]-LLP2A uptake identified s
295 n model, which is characterized by organized granulomas with necrotic cores that bear striking resemb
297 ich lack lymphocytes, also form noncaseating granulomas with similar kinetics, but these control infe
300 erentiation of different cell populations in granulomas would be a useful research tool and could imp