The surface mucosa that lines many of our organs houses myriad biometric signals and,
therefore, has great potential as a sensor–tissue interface for high-fidelity and long-term …

Background Gastric motility disorders, which include both functional and organic etiologies,
are highly prevalent. However, there remains a critical lack of objective biomarkers to guide …

Over the last two decades, high-resolution (HR) map** has emerged as a powerful
technique to study normal and abnormal bioelectrical events in the gastrointestinal (GI) tract …

The use of in silico models to improve our understanding of the fluid dynamics within the
gastrointestinal tract has increased over the last few decades. Computational fluid dynamics …

Postsurgical gastric dysfunction is common, but the mechanisms are varied and poorly
understood. The pylorus normally acts as an electrical barrier isolating gastric and intestinal …

Gastric motility is coordinated by underlying bioelectrical slow waves. Gastric dysrhythmias
occur in gastrointestinal (GI) motility disorders, but there are no validated methods for …

Gastric motility is coordinated by underlying bioelectrical “slow wave” activity. Slow wave
dysrhythmias are associated with motility disorders, including gastroparesis, offering an …

Aim Prolonged postoperative ileus (PPOI) occurs in around 15% of patients after major
abdominal surgery, posing a significant clinical and economic burden. Significant fluid and …

Abstract Background and Purpose The efficacy of conventional treatments for severe and
chronic functional motility disorders remains limited. High‐energy pacing is a promising …

Background The motility in the small intestine is governed in part by myogenic bio‐electrical
events, known as slow waves. High‐resolution multi‐electrode map** has improved our …