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1 despite continuous exposure to concentrated gastric acid.
2 The duodenum absorbs nearly all secreted gastric acid.
3 on of duodenal epithelial cells from luminal gastric acid.
4 of excess ammonia, some of which neutralizes gastric acid.
5 using a formulation which protects them from gastric acid.
6 owing for cell injury from back diffusion of gastric acid.
7 rial defenses in the upper GI tract, such as gastric acid.
8 in L. reuteri is mainly devoted to overcome gastric acid.
9 s of PPIs that are independent of effects on gastric acid.
10 se for low-pH simulants containing nitric or gastric acid.
11 gainst dehydration, pathogen penetration, or gastric acids.
12 re exposed to postprandial concentrations of gastric acid (0.15N HCl) for 7 days, and radiographs wer
15 rganisms to the potential killing effects of gastric acid, allows several logarithmic increases in gr
18 so also in humans, reflux of an admixture of gastric acid and duodenal juice in a high-pH environment
20 n is the only hormone capable of stimulating gastric acid and is thus required to maintain functional
25 ese motors can safely and rapidly neutralize gastric acid and simultaneously release payload without
26 tagonists (H2RAs) suppress the production of gastric acid and thus may lead to malabsorption of vitam
28 of probiotics, resistance to antibiotics and gastric acid, and potential benefits in reducing postope
33 ibed proton pump inhibitors (PPIs) to reduce gastric acid associated damage to esophageal and airway
37 ronments and aids in the passage through the gastric acid barrier to allow access to the small intest
40 ences numerous cellular processes, including gastric acid/bicarbonate secretion, mucus secretion, and
48 n gut and in healthy volunteers demonstrates gastric acid-dependent phage resilience, safety, and via
54 , found in fortified foods, does not require gastric acid for its absorption and could thus be benefi
58 llinger-Ellison syndrome (ZES) or idiopathic gastric acid hypersecretion is necessary perioperatively
59 og-interacting protein-1 had lower levels of gastric acid (hypochlorhydria), reduced production of so
61 hout known risk factors for iron deficiency, gastric acid inhibitor use for >/=2 years was associated
64 uced during Helicobacter infection inhibited gastric acid, intracellular calcium, and Shh expression
66 hanisms and causing injury, the secretion of gastric acid is precisely regulated by a variety of cent
68 physiological stressor in tumor development, gastric acid-mediated regional microscopic injury in for
70 o avoid damage under these harsh conditions, gastric acid must be finely regulated by overlapping neu
73 m intrinsic and extrinsic factors, including gastric acid, nonsteroidal anti-inflammatory drugs, and
75 n a twofold increase in basal and stimulated gastric acid output and an undetectable serum gastrin le
79 toprazole in maintaining adequate control of gastric acid output during the switch from oral to intra
80 on of the vagi, as evident by an increase in gastric acid output, a rise in serum pancreatic polypept
82 t not plasmid mutant while mice deficient in gastric acid production rescued the plasmid mutant but n
83 more potent and longer-acting inhibitors of gastric acid production than intravenous histamine-2-rec
84 comparable to OPGV in decreasing stimulated gastric acid production without significantly altering g
85 s), which are commonly used as inhibitors of gastric acid production, also have anti-inflammatory pro
86 ly deficient in gastrin, a key regulator for gastric acid production, or pharmacologically treated wi
87 mine-2 receptor antagonists (H2RAs) suppress gastric acid production, which can inhibit iron absorpti
88 mine-2 receptor antagonists (H2RAs) suppress gastric acid production, which can inhibit iron absorpti
95 pump inhibitors (PPIs) are commonly used for gastric acid-related disorders, but their safety profile
96 for gastroesophageal reflux disease or other gastric acid-related disorders, namely PPIs, histamine 2
98 upper gastrointestinal tract to concentrated gastric acid remains one of the biggest unsolved mysteri
99 upper gastrointestinal tract to concentrated gastric acid remains one of the biggest unsolved mysteri
100 a Gram-negative, facultative intracellular, gastric acid-resistant bacterium of the Enterobacteriace
102 Caffeine, generally known as a stimulant of gastric acid secretion (GAS), is a bitter-tasting compou
103 Slc26a9 deletion resulted in the loss of gastric acid secretion and a moderate reduction in the n
104 ers, paracrine agents, and hormones regulate gastric acid secretion and are themselves regulated.
106 tion of acid in the stomach due to increased gastric acid secretion and delayed gastric emptying.
107 esults demonstrate that AE2 is essential for gastric acid secretion and for normal development of sec
108 Epidermal growth factor (EGF) stimulates gastric acid secretion and H(+)/K(+)-ATPase alpha-subuni
110 w emphasizes the importance and relevance of gastric acid secretion and its regulation in health and
111 mpairments in basal and histamine-stimulated gastric acid secretion and markedly reduced levels of th
112 disease.Proton pump inhibitors (PPIs) reduce gastric acid secretion and modulate gut microbiota compo
113 the vagus (DMV) has been shown to stimulate gastric acid secretion and motility, respectively, via v
114 ons into the DMV may mediate the increase in gastric acid secretion and motor activity associated wit
116 t analysis of its role during organogenesis, gastric acid secretion and neoplastic transformation.
119 potassium channel beta subunit gene ablates gastric acid secretion and predisposes to gastric neopla
120 ine alone showed partial suppression of both gastric acid secretion and progression to neoplasia.
121 g cellular restitution as well as inhibiting gastric acid secretion and reactive oxygen species (ROS)
122 ent strategies including improved control of gastric acid secretion and role for surgery, and new app
123 lly linked to epithelial processes including gastric acid secretion and thyroid hormone biosynthesis.
124 Recent milestones in the understanding of gastric acid secretion and treatment of acid-peptic diso
125 prove our understanding of the regulation of gastric acid secretion at the central, peripheral, and i
126 buting to understanding of the regulation of gastric acid secretion at the central, peripheral, and i
127 ovides direct evidence for the regulation of gastric acid secretion by a TRP channel; TRPML1 is an im
129 e hypothesized that LPS causes inhibition of gastric acid secretion by down-regulating the H/K-ATPase
131 contributes to galanin-induced inhibition of gastric acid secretion by means of the suppression of en
135 ass of protein may account for inhibition of gastric acid secretion by PYY released from the small in
137 es central neurotensin-induced inhibition of gastric acid secretion does not appear to be the high-af
141 nd 2c (L-736,380) dose-dependently inhibited gastric acid secretion in anesthetized rats (ID(50), 0.0
142 edge, the understanding of the regulation of gastric acid secretion in health and disease is far from
143 es in our understanding of the regulation of gastric acid secretion in health and disease, as well as
146 ociated with any significant change in basal gastric acid secretion in monkeys and occurred despite a
148 esis that inhibition of gastric emptying and gastric acid secretion in response to dietary lipid is d
152 fluence of central and peripheral stimuli on gastric acid secretion is mediated via activation of his
157 ng of the pathways and mechanisms regulating gastric acid secretion may lead to the development of ne
159 onse to counteract infection-related damage, gastric acid secretion or gastrointestinal motility for
161 more potent and longer-lasting inhibition of gastric acid secretion provided by proton pump inhibitor
163 ng of the pathways and mechanisms regulating gastric acid secretion should lead to improved managemen
164 ng of the pathways and mechanisms regulating gastric acid secretion should lead to the development of
165 ed into the cisterna magna potently inhibits gastric acid secretion stimulated by intravenous infusio
167 minant gastritis and profound suppression of gastric acid secretion that is partially reversible with
169 nal role of Akt appears to be stimulation of gastric acid secretion through induction of H(+)/K(+)-AT
170 e whereby endogenous somatostatin suppresses gastric acid secretion through inhibition of gastrin act
171 the VLRF to inhibit pentagastrin-stimulated gastric acid secretion through spinal pathways, suggesti
172 re, we identified a novel pathway modulating gastric acid secretion through the stomach calcium-sensi
173 actor (EGF) inhibits secretagogue-stimulated gastric acid secretion via an EGF receptor located on pa
174 pose that Slc26a9 plays an essential role in gastric acid secretion via effects on the viability of t
175 ction of this amidated peptide in regulating gastric acid secretion via the CCK2 receptor is now well
176 naesthetized A-IV(+/+) mice, meal-stimulated gastric acid secretion was 59% inhibited by intestinal l
180 enervated rats with a gastric fistula, basal gastric acid secretion was depressed 3-fold, and plasma
182 art of an intravenous pentagastrin infusion; gastric acid secretion was monitored every 10 min for 20
183 la oblongata where bombesin acts to suppress gastric acid secretion were investigated in urethane-ane
184 rticularly the gastrin (G) cell, co-ordinate gastric acid secretion with the arrival of food in the s
185 ximal tubular and intestinal Na+ absorption, gastric acid secretion, and cAMP-induced jejunal Cl- sec
187 wed mild hypergastrinemia, increased maximal gastric acid secretion, and increased parietal cell numb
188 ocin, which acts within the DMV to stimulate gastric acid secretion, but inhibits gastric motor funct
189 heir ability of immune defense responses and gastric acid secretion, consistent with their ability to
190 exchanger, is important for normal levels of gastric acid secretion, gastric epithelial cell differen
191 ed vascular permeability, and stimulation of gastric acid secretion, histamine plays important roles
192 detectable tissue histamine levels, impaired gastric acid secretion, impaired passive cutaneous anaph
193 h advancing age has no independent effect on gastric acid secretion, it is associated with reduced pe
194 ical processes including allergic reactions, gastric acid secretion, neurotransmitter release, and in
195 ished the stimulatory effect of histamine on gastric acid secretion, providing evidence for the regul
198 oltage-dependent K(+) channel that regulates gastric acid secretion, salt and glucose homeostasis, an
199 data demonstrate that KCNE2 is essential for gastric acid secretion, the first genetic evidence that
200 agents have been implicated as regulators of gastric acid secretion, their site and mechanism of acti
201 mmunoreactivity, and pentagastrin-stimulated gastric acid secretion, were similar in both infected an
202 n in the somatostatin pathway have increased gastric acid secretion, which confirms an important nega
233 cial hemodynamic effects, has prokinetic and gastric acid secretory functions in the stomach, and may
234 This study demonstrates the association of gastric acid stress with Cyclooxygenase-2-dependent tumo
237 ay not be appropriate, however, both because gastric acid suppression by PPIs might benefit EoE patie
240 e of proton pump inhibitors (PPIs) result in gastric acid suppression that can impair the absorption
241 sms that are vs are not associated with less gastric acid suppression were associated with 1.72-fold
242 icile acquisition while antibiotic exposure, gastric acid suppression, and immunosuppression increase
243 Proton pump inhibitors, commonly used for gastric acid suppression, have been shown to have an ass
247 ctor in the pathogenesis of peptic ulcers is gastric acid, the secretion of which is controlled by th
248 h can autonomously and temporally neutralize gastric acid through efficient chemical propulsion in th
252 (2) >200 mm Hg due to the luminal mixture of gastric acid with secreted bicarbonate, which augments m