Body surface mapping of the stomach: New directions for clinically evaluating gastric electrical activity

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 efficient diagnostics and personalized therapies. Bioelectrical activity plays a fundamental role in coordinating...

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Veröffentlicht in:Neurogastroenterology and motility 2021-03, Vol.33 (3), p.e14048-n/a
Hauptverfasser: Carson, Daniel A., O’Grady, Greg, Du, Peng, Gharibans, Armen A., Andrews, Christopher N.
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container_issue 3
container_start_page e14048
container_title Neurogastroenterology and motility
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creator Carson, Daniel A.
O’Grady, Greg
Du, Peng
Gharibans, Armen A.
Andrews, Christopher N.
description 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 efficient diagnostics and personalized therapies. Bioelectrical activity plays a fundamental role in coordinating gastric function and has been investigated as a contributing mechanism to gastric dysmotility and sensory dysfunction for a century. However, conventional electrogastrography (EGG) has not achieved common clinical adoption due to its perceived limited diagnostic capability and inability to impact clinical care. The last decade has seen the emergence of novel high‐resolution methods for invasively mapping human gastric electrical activity in health and disease, providing important new insights into gastric physiology. The limitations of EGG have also now become clearer, including the finding that slow‐wave frequency alone is not a reliable discriminator of gastric dysrhythmia, shifting focus instead toward altered spatial patterns. Recently, advances in bioinstrumentation, signal processing, and computational modeling have aligned to allow non‐invasive body surface mapping of the stomach to detect spatiotemporal gastric dysrhythmias. The clinical relevance of this emerging strategy to improve diagnostics now awaits determination. Purpose This review evaluates these recent advances in clinical gastric electrophysiology, together with promising emerging data suggesting that novel gastric electrical signatures recorded at the body surface (termed “body surface mapping”) may correlate with symptoms. Further technological progress and validation data are now awaited to determine whether these advances will deliver on the promise of clinical gastric electrophysiology diagnostics. Body surface mapping (BSM) is an emerging technique in which patterns of gastric electrophysiology are mapped non‐invasively from the body surface. This review evaluates the current status of this emerging diagnostic strategy.
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However, there remains a critical lack of objective biomarkers to guide efficient diagnostics and personalized therapies. Bioelectrical activity plays a fundamental role in coordinating gastric function and has been investigated as a contributing mechanism to gastric dysmotility and sensory dysfunction for a century. However, conventional electrogastrography (EGG) has not achieved common clinical adoption due to its perceived limited diagnostic capability and inability to impact clinical care. The last decade has seen the emergence of novel high‐resolution methods for invasively mapping human gastric electrical activity in health and disease, providing important new insights into gastric physiology. The limitations of EGG have also now become clearer, including the finding that slow‐wave frequency alone is not a reliable discriminator of gastric dysrhythmia, shifting focus instead toward altered spatial patterns. Recently, advances in bioinstrumentation, signal processing, and computational modeling have aligned to allow non‐invasive body surface mapping of the stomach to detect spatiotemporal gastric dysrhythmias. The clinical relevance of this emerging strategy to improve diagnostics now awaits determination. Purpose This review evaluates these recent advances in clinical gastric electrophysiology, together with promising emerging data suggesting that novel gastric electrical signatures recorded at the body surface (termed “body surface mapping”) may correlate with symptoms. Further technological progress and validation data are now awaited to determine whether these advances will deliver on the promise of clinical gastric electrophysiology diagnostics. Body surface mapping (BSM) is an emerging technique in which patterns of gastric electrophysiology are mapped non‐invasively from the body surface. 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Recently, advances in bioinstrumentation, signal processing, and computational modeling have aligned to allow non‐invasive body surface mapping of the stomach to detect spatiotemporal gastric dysrhythmias. The clinical relevance of this emerging strategy to improve diagnostics now awaits determination. Purpose This review evaluates these recent advances in clinical gastric electrophysiology, together with promising emerging data suggesting that novel gastric electrical signatures recorded at the body surface (termed “body surface mapping”) may correlate with symptoms. Further technological progress and validation data are now awaited to determine whether these advances will deliver on the promise of clinical gastric electrophysiology diagnostics. Body surface mapping (BSM) is an emerging technique in which patterns of gastric electrophysiology are mapped non‐invasively from the body surface. 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subjects biomarkers
Body Surface Potential Mapping - methods
Computer applications
Diagnostic Techniques, Digestive System
dyspepsia
Electrophysiology
gastric electrical activity
Gastric motility
Gastrointestinal Motility - physiology
gastroparesis
Humans
Mapping
Signal processing
slow waves
Stomach
Stomach - physiology
title Body surface mapping of the stomach: New directions for clinically evaluating gastric electrical activity
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