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Literature DB >> 22399822

The analysis of human gastric pacemaker activity.

Gregory O'Grady, Andrew J Pullan, Leo K Cheng.

Abstract

Entities: Species

Mesh：

Year: 2012 PMID： 22399822 PMCID： PMC3381832 DOI： 10.1113/jphysiol.2011.224014

Source DB: PubMed Journal: J Physiol ISSN： 0022-3751 Impact factor: 5.182

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12 in total

1. Gastric flow and mixing studied using computer simulation.

Authors: Anupam Pal; Keshavamurthy Indireshkumar; Werner Schwizer; Bertil Abrahamsson; Michael Fried; James G Brasseur
Journal: Proc Biol Sci Date: 2004-12-22 Impact factor: 5.349

2. A multiscale model of the electrophysiological basis of the human electrogastrogram.

Authors: Peng Du; Gregory O'Grady; Leo K Cheng; Andrew J Pullan
Journal: Biophys J Date: 2010-11-03 Impact factor: 4.033

Review 3. Assessment of gastrointestinal motor functions by MRI: a comprehensive review.

Authors: L Marciani
Journal: Neurogastroenterol Motil Date: 2011-01-30 Impact factor: 3.598

4. Origin and propagation of human gastric slow-wave activity defined by high-resolution mapping.

Authors: Gregory O'Grady; Peng Du; Leo K Cheng; John U Egbuji; Wim J E P Lammers; John A Windsor; Andrew J Pullan
Journal: Am J Physiol Gastrointest Liver Physiol Date: 2010-07-01 Impact factor: 4.052

5. Pacemaker localization and electrical conduction patterns in the canine stomach.

Authors: J Weber; S Koatsu
Journal: Gastroenterology Date: 1970-11 Impact factor: 22.682

Review 6. Gastrointestinal extracellular electrical recordings: fact or artifact?

Authors: G O'Grady
Journal: Neurogastroenterol Motil Date: 2012-01 Impact factor: 3.598

7. Electrical slow wave activity of the cat stomach: its frequency gradient and the effect of indomethacin.

Authors: S Xue; D T Valdez; L Tremblay; P I Collman; N E Diamant
Journal: Neurogastroenterol Motil Date: 1995-09 Impact factor: 3.598

8. Configuration of intestinal slow waves obtained by monopolar recording techniques.

Authors: A Bortoff
Journal: Am J Physiol Date: 1967-07

9. Gastric pacing improves emptying and symptoms in patients with gastroparesis.

Authors: R W McCallum; J D Chen; Z Lin; B D Schirmer; R D Williams; R A Ross
Journal: Gastroenterology Date: 1998-03 Impact factor: 22.682

10. Human gastric pacesetter potential. Site of origin, spread, and response to gastric transection and proximal gastric vagotomy.

Authors: R A Hinder; K A Kelly
Journal: Am J Surg Date: 1977-01 Impact factor: 2.565

9 in total

9. Spatial analysis of slowly oscillating electric activity in the gut of mice using low impedance arrayed microelectrodes.

Authors: Mizuki Taniguchi; Shunichi Kajioka; Habibul B Shozib; Kenta Sawamura; Shinsuke Nakayama
Journal: PLoS One Date: 2013-10-04 Impact factor: 3.240

9 in total

The analysis of human gastric pacemaker activity.

1. Gastric flow and mixing studied using computer simulation.

2. A multiscale model of the electrophysiological basis of the human electrogastrogram.

Review 3. Assessment of gastrointestinal motor functions by MRI: a comprehensive review.

4. Origin and propagation of human gastric slow-wave activity defined by high-resolution mapping.

5. Pacemaker localization and electrical conduction patterns in the canine stomach.

Review 6. Gastrointestinal extracellular electrical recordings: fact or artifact?

7. Electrical slow wave activity of the cat stomach: its frequency gradient and the effect of indomethacin.

8. Configuration of intestinal slow waves obtained by monopolar recording techniques.

9. Gastric pacing improves emptying and symptoms in patients with gastroparesis.

10. Human gastric pacesetter potential. Site of origin, spread, and response to gastric transection and proximal gastric vagotomy.

Review 1. Gastric arrhythmias in gastroparesis: low- and high-resolution mapping of gastric electrical activity.

2. The bioelectrical basis and validity of gastrointestinal extracellular slow wave recordings.

Review 3. Mapping and modeling gastrointestinal bioelectricity: from engineering bench to bedside.

4. Correct techniques for extracellular recordings of electrical activity in gastrointestinal muscle.

Review 5. Slow wave conduction patterns in the stomach: from Waller's foundations to current challenges.

6. A theoretical analysis of the electrogastrogram (EGG).

Review 7. Problems with extracellular recording of electrical activity in gastrointestinal muscle.

8. Measuring Gastrointestinal Electrical Activity With Extracellular Electrodes.

9. Spatial analysis of slowly oscillating electric activity in the gut of mice using low impedance arrayed microelectrodes.