Wide-Area Transepithelial Sampling in Endoscopic Eradication Therapy for Barrett's Esophagus
Additive Value of Wide-Area Transepithelial Sampling (WATS3D) in Detection of Recurrence of Intestinal Metaplasia Following Endoscopic Eradication Therapy (EET) for Barrett's Esophagus-Related Neoplasia
About This Trial
Esophageal cancer is a deadly disease that is becoming increasingly common in the United States. Barrett's esophagus (BE) is a pre-cancerous state that can develop into esophageal cancer, but is highly treatable. Progression of BE to esophageal cancer is still common due to missed diagnosis of Barrett's esophagus recurrence following treatment. Wide-Area Trans-Epithelial Sampling (WATS-3D) is a new technology that uses brush sampling to examine larger areas of the esophagus as compared to conventional biopsies. Preliminary studies show improved detection of cancerous changes in Barrett's esophagus surveillance. The investigators hope to see if the addition of WATS-3D increases the rate of detection of recurrent BE following treatment, which is of the utmost importance since it would allow for earlier re-treatment of disease and ultimately allow for prevention of progression to esophageal cancer.
Who May Be Eligible (Plain English)
Original Eligibility Criteria
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Treatments Being Tested
WATS-3D tissue sampling prior to forceps biopsies
WATS-3D is a brush-based tissue sampling technique. Abrasive brush sampling of large areas of the esophagus pick up cells to obtain trans-epithelial specimens. This technique samples much larger tissue areas than standard forceps biopsies. Analysis is then done by proprietary neural-network based computer scanning and molecular diagnostics to identify abnormal cells.
WATS-3D tissue sampling following forceps biopsies
WATS-3D is a brush-based tissue sampling technique. Abrasive brush sampling of large areas of the esophagus pick up cells to obtain trans-epithelial specimens. This technique samples much larger tissue areas than standard forceps biopsies. Analysis is then done by proprietary neural-network based computer scanning and molecular diagnostics to identify abnormal cells. This will be done after forceps biopsies in this arm.