Slow waves coordinate gastric motility, and abnormal slow-wave activity is thought to
contribute to motility disorders. The current understanding of normal human gastric slow …

Normal gastrointestinal (GI) motility results from the coordinated interplay of multiple
cooperating mechanisms, both intrinsic and extrinsic to the GI tract. A fundamental …

Background The pig is a popular model for gastric electrophysiology studies. However, its
normal baseline gastric activity has not been well characterized. High‐resolution (HR) …

Background Gastrointestinal contractions are controlled by an underlying bioelectrical
activity. High-resolution spatiotemporal electrical map** has become an important …

High resolution (HR) multi-electrode map** is increasingly being used to evaluate
gastrointestinal slow wave behaviors. To create the HR activation time (AT) maps from …

Gastric pacing has been investigated as a potential treatment for gastroparesis. New pacing
protocols are required to improve symptom and motility outcomes; however, research …

Abstract High-resolution (HR) multi-electrode map** has become an important technique
for evaluating gastrointestinal (GI) slow wave (SW) behaviors. However, the application and …

High-resolution (HR) electrical map** is an important clinical research tool for
understanding normal and abnormal gastric electrophysiology. Analyzing velocities of …

Background Gastric slow waves regulate peristalsis, and gastric dysrhythmias have been
implicated in functional motility disorders. To accurately define slow wave patterns, it is …

Abstract Background and Objective: Gastrointestinal (GI) motility disorders can be
significantly detrimental to the quality of life. Pacing, or long pulse gastric electrical …