ライフサイエンスコーパス: gastric fundus

1 c labeling of afferent intramuscular arrays (gastric fundus).

2 petite-stimulating hormone secreted from the gastric fundus.

3 y, which is mainly caused by ischemia of the gastric fundus.

4 ircular muscle layer of mouse and guinea-pig gastric fundus.

5 zed calcium release events in cells from the gastric fundus.

6 stribution occurred after injection into the gastric fundus.

7 al masses on the posteromedial border of the gastric fundus.

8 -cm-diameter polypoid, ulcerated mass in the gastric fundus.

9 link histamine and somatostatin cells in the gastric fundus.

10 C-IM mediate neural inputs in muscles of the gastric fundus.

11 mography revealed gastric pneumatosis at the gastric fundus.

12 ortex, blood pool in the left ventricle, and gastric fundus.

13 nfirmed the ischemic change of mucosa at the gastric fundus.

14 ic defects on the superomedial aspect of the gastric fundus abutting the cardia, presumably due to bu

15 l vagal stimulation (EVS) were recorded from gastric fundus and antral regions of wild type and W/W(V

16 going discharge of unitary potentials in the gastric fundus and antrum that contributes to the overal

17 The gastric fundus and antrum were evaluated independently u

18 excite vagal motor neurones that project to gastric fundus and corpus.

19 astric vessels and subsequent measurement of gastric fundus blood flow.

20 rwent laparotomy and measurement of baseline gastric fundus blood flow.

21 plying fluorescent retrograde tracers to the gastric fundus, corpus or antrum/pylorus, or to the duod

22 osition of the fluorescent tracer DiI to the gastric fundus, corpus or antrum/pylorus, the duodenum o

23 ponse to nitrergic stimulation of the canine gastric fundus does not depend upon electrical hyperpola

24 enger RNA (mRNA) differential display of the gastric fundus from gastrin-deficient (GAS-KO) or wild-t

25 Uptake in the gastric fundus gradually increased for up to 45 min (to

26 tric conduit despite previous surgery on the gastric fundus in 8 (20%), previous esophageal operation

27 hey involved the posteromedial border of the gastric fundus in eight patients, the central cardiac re

28 a2+]i), and tension in muscles of the canine gastric fundus in response to nitrergic stimulation by N

29 Coinnervation of the LES and gastric fundus is logical, because the LES has similar f

30 growth factor alpha (TGFalpha) levels in the gastric fundus leads to oxyntic atrophy and massive fove

31 and visualize PDGFRalpha(+) cells in murine gastric fundus, load cells with Ca(2+) indicators, and f

32 c excitatory neural inputs was studied using gastric fundus muscles of wild-type animals and W/W(v) m

33 subunit 1 (MYPT1) phosphorylation in murine gastric fundus muscles stimulated by bath-applied carbac

34 on of purinergic enteric inhibitory input in gastric fundus muscles.

35 Slow waves were routinely recorded from gastric fundus muscles.

36 f norepinephrine, nerve growth factor in the gastric fundus muscularis externae, brain-derived neurot

37 The notion that the gastric fundus must be wrapped around a conveniently lon

38 the circular and longitudinal muscles of the gastric fundus of wild-type mice.

39 70 % (30/43) of those that projected to the gastric fundus or corpus.

40 This allows the organism to live in either gastric fundus or gastric antrum depending on the level

41 s and results in increased blood flow to the gastric fundus prior to esophagogastric anastomosis.

42 special attention to their relationship with gastric fundus-projecting neurons.

43 c dispersion of the muscle of the guinea-pig gastric fundus, single elongated cells were observed whi

44 Transarterial embolization of the gastric fundus was performed using 300- to 500-um emboli

45 otentials (IJP) of circular smooth muscle of gastric fundus were studied.

46 Transarterial embolization of the gastric fundus with fluoroscopic guidance was performed