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 pepsinogen (PG) I and II levels (measures of gastric inflammation).
2 s expression correlates with the severity of gastric inflammation.
3 Coro1A(-/-) mice, resulting in an attenuated gastric inflammation.
4 on of host defense against the bacterium and gastric inflammation.
5 ls is important to regulatory suppression of gastric inflammation.
6 to H. felis-induced gastritis, with enhanced gastric inflammation.
7 t in individuals with non-H. pylori -induced gastric inflammation.
8 f the -511T/T genotype was related to severe gastric inflammation.
9 ction of IL-8, and induction of neutrophilic gastric inflammation.
10 uction and, at the same time, contributes to gastric inflammation.
11 igate the impact of sex on the regulation of gastric inflammation.
12 rogens exert overlapping effects to regulate gastric inflammation.
13 lation and contributes to the development of gastric inflammation.
14 test the effects of androgens on regulating gastric inflammation.
15 igated whether BMP signaling pathways affect gastric inflammation after bacterial infection of mice.
16 s, H. pylori colonization of gerbils induced gastric inflammation and a systemic antibody response to
17 ich a high-salt diet leads to high levels of gastric inflammation and associated oxidative stress in
18 mucosal IL-1beta levels and were related to gastric inflammation and atrophy, factors thought to be
21 genicity island is associated with increased gastric inflammation and decreased epithelial repair.
22 ith the cagA mutant strain had low levels of gastric inflammation and did not develop hypochlorhydria
24 7BL/10J and BALB/c mice also did not develop gastric inflammation and displayed a mixed Th1/Th2 splen
26 se chain reaction and colony hybridization), gastric inflammation and epithelial injury (assessed his
27 n of inflammatory cytokines promoted chronic gastric inflammation and expansion and transformation of
28 .01), whereas IFN-gamma-/- mice exhibited no gastric inflammation and higher levels of IL-4 productio
30 pylori infection elevates IFN-gamma-mediated gastric inflammation and may suppress IFN-gamma signalin
31 ng within the stomach to prevent spontaneous gastric inflammation and metaplasia, and suggest that gl
36 nalectomized female mice develop spontaneous gastric inflammation and spasmolytic polypeptide-express
37 Treatment of female mice with DHT prevented gastric inflammation and SPEM development when administe
40 serum pepsinogens levels (PGs) as markers of gastric inflammation and the immune response to single-d
42 h factors influence mucosal IL-1beta levels, gastric inflammation, and atrophy, multiple regression a
43 e were evaluated for cellular proliferation, gastric inflammation, and cytokine and Ab production at
44 iated with bacterial virulence determinants, gastric inflammation, and duodenal ulceration, suggestin
45 itis, as indicated by anti-parietal cell Ab, gastric inflammation, and the presence of cells capable
46 licobacter pylori infection not only induces gastric inflammation but also increases the risk of gast
48 oidal anti-inflammatory drug (NSAID) induces gastric inflammation, causing degradation of the extrace
49 GAS mice exhibited a significant increase in gastric inflammation compared with either uninfected or
50 L/6 mice exhibited a significant increase in gastric inflammation compared with uninfected or infecte
51 sa were well correlated with the severity of gastric inflammation, confirming that H. pylori-induced
52 Infected C57BL/6J SCID mice did not develop gastric inflammation despite colonization by many bacter
53 gastrin release could be related to chronic gastric inflammation, elevated luminal ammonia level, or
54 a significant reduction in morphine-induced gastric inflammation, gastric delaying, and improved mor
57 , those fed a high-salt diet had more severe gastric inflammation, higher gastric pH, increased parie
59 roliferation correlated with the severity of gastric inflammation in both immunized/challenged (prote
61 gamma resulted in a significant reduction of gastric inflammation in H. felis-infected, as well as im
62 ked whether Muc1 might also counter-regulate gastric inflammation in response to H. pylori infection.
64 at 18 weeks postinoculation revealed minimal gastric inflammation in the animals that received the mu
65 ase reactions can occur during IgE-dependent gastric inflammation in the mouse and that the infiltrat
70 gated the role of IL-17 signaling in chronic gastric inflammation induced by Helicobacter pylori, a G
72 of epithelial injury, and we have shown that gastric inflammation is increased in H. pylori-infected
73 diated injury, our experiments now show that gastric inflammation is increased within the context of
75 D/+);gp130(F/F) mice promoted more extensive gastric inflammation, metaplastic transformation, and tu
76 onization density was higher and mononuclear gastric inflammation more severe in infected IL-17RA(-/-
77 ld-type mice did not affect the intensity of gastric inflammation or the extent of Helicobacter colon
78 acterial colonization density, the degree of gastric inflammation, or the presence of lymphoid follic
79 y resulted in the rapid onset of spontaneous gastric inflammation, oxyntic atrophy, and spasmolytic p
80 ction which can result in various degrees of gastric inflammation, peptic ulcer disease, and a predis
83 known to be responsible for inducing chronic gastric inflammation that progresses to atrophy, metapla
85 nd interferon gamma signaling that sustained gastric inflammation to induce VGPC transformation and g
86 ing was shown to aggravate H. pylori-induced gastric inflammation via activation of the lymphotoxin b
92 rences in bacterial colonization density and gastric inflammation were not apparent at 1 mo postinfec
95 gree of association of chronic intestinal or gastric inflammation with the development of cancer, has