Continuing Education – Endoscope Drying (1 CE Credit)

The goal of this program is to understand…

  •  WHY we need to dry our scopes
  • HOW we can accomplish this
  • WHAT is out there to automate the process.

The program is a 1 hour presentation either in person or through a webinar.

Research and Articles


Talented Labor Pool a Challenge for EMS Providers

Workers skilled in electrical wiring and installation in medical products can be difficult to find.

Michael Barbella, Managing Editor 03.31.21

Last spring, Vexos Inc. received a federal contract to produce 10,000 mechanical ventilators for COVID-19 patients in Canada. The global electronics manufacturing services (EMS) and custom material solutions provider was part of a consortium that worked to ensure the Land of Maple Syrup had a sufficient ventilator supply for its hospitalized patients.

Vexos worked with Elemaster Group and JMP Solutions to manufacture the Mechanical Ventilator Milano (MVM), an electrically operated, microprocessor-controlled, pneumatically driven machine. The project truly was a collaborative effort: Elemaster designed the ventilator, JPM Solutions made the mechanical sub-assembly, and Vexos provided the electronics (and tested the device).

“We recognized the need to partner with an experienced EMS organization with strong manufacturing and supply chain presence in the medical sector, and the ability to meet U.S. and Canadian regulatory requirements,” Elemaster President/CEO Gabriele Cogliati said. “In Vexos, we have a partner that aligns with us and our goal, to provide the MVM Ventilator globally.”

Such partnerships were commonplace in the pandemic’s early days as companies from all walks of life (including healthcare) turned to EMS providers for help in navigating COVID-19-induced supply chain challenges and equipment shortages. Their expertise particularly was crucial in maintaining device connectivity and meeting the skyrocketing demand for telehealth services and remote patient monitoring technology.

Medical Product Outsourcing’s January/February feature, Virtual Allies, examines the key role EMS providers played in helping address the medtech industry’s quickly-changing needs. Thomas Allen, vice president at Elgin, Ill.-based TRICOR Systems Inc., was among the experts interviewed for the story. His full input is provided in the following Q&A.

The Dri-Scope Aid® team has done some research for you. The research below not only focuses on WHY you should be drying, but HOW you can accomplish this important step in your reprocessing cycle.

Comparison of automated and manual drying in the elimination of residual endoscope working channel fluid after reprocessing (with video).

Results: Significantly more fluid droplets were evident after manual drying than with automated device-facilitated drying for either 5 minutes (.83t 1.29: P=.007) or 10 minutes (0 t 0: P=.001).  ATP bioluminescence values were higher for manual drying compared with automated drying at 48 and 72 hours after reprocessing.

Barakat MT1Huang RJ1Banerjee S1 Division of Gastroenterology and Hepatology, Stanford University School of Medicine, Stanford, CA
Gastrointest Endosc. 2019 Jan;89(1):124-132.e2. doi: 10.1016/j.gie.2018.08.033. Epub 2018 Aug 25

Endoscope reprocessing: Comparison of drying effectiveness and microbial levels with an automated drying and storage cabinet with forced filtered air and a standard storage cabinet.

Results: Using the automated drying and storage cabinet, internal channels were dry at 1 hour and external surfaces at 3 hours in all endoscopes. With the standard storage cabinet, there was residual internal fluid at 24 hours, whereas external surfaces were dry at 24 hours. For bronchoscopes, colonoscopes, and duodenoscopes, the standard cabinet allowed for an average rate of colony forming unit growth of 8.1 × 106 per hour, 8.3 × 106 per hour, and 7.0 × 107 per hour, respectively; the automated cabinet resulted in colony forming unit growth at an average rate of -28.4 per hour (P = .02), -38.5 per hour (P = .01), and -200.2 per hour (P = .02), respectively.

Perumpail RB1Marya NB1McGinty BL2Muthusamy VR3 David Geffen School of Medicine at UCLA, Los Angeles, CA  Department of Gastroenterology Services, Northside Hospital, Atlanta GA
Am J Infect Control. 2019 Apr 6. pii: S0196-6553(19)30104-X. doi: 10.1016/j.ajic.2019.02.016

Residual moisture and waterborne pathogens inside flexible endoscopes: Evidence from a multisite study of endoscope drying effectiveness.

Results: Fluid was detected in 22 of 45 (49%) endoscopes. Prevalence of moisture varied significantly by site (5%; 83%; 85%; P < .001). High adenosine triphosphate levels were found in 22% of endoscopes, and microbial growth was detected in 71% of endoscopes. Retained fluid was associated with significantly higher adenosine triphosphate levels (P < .01). Reprocessing and drying practices conformed with guidelines at 1 site and were substandard at 2 sites. Damaged endoscopes were in use at all sites.

Ofstead CL1, Heymann OL2, Quick MR2, Eiland JE2, Wetzler HP2 Ofstead & Associates, Inc Saint Paul, MNAm J Infect Control. 2018 Jun;46(6):689-696. doi: 10.1016/j.ajic.2018.03.002. Epub 2018 Mar 30.


Dri-Scope Aid® Jet-Stream Quick Start Guide


Dri-Scope Aid® Jet-Stream Out of the Box Setup


Dri-Scope Aid® Jet-Stream
Filter Replacement & Pressure Test


Dri-Scope Aid® Cabinet