Microbial Contamination of Smart Watches in Dermatologic Surgeries: A Cross-Sectional Study.
Microbial Contamination of Smart Watches in Dermatologic Surgeries: A Cross-Sectional Study.
复制标题
皮肤科手术中智能手表的微生物污染:一项横断面研究。
DOI:
10.1097/dss.0000000000003998
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发表时间:
2024
期刊:
影响因子:
--
通讯作者:
Carroll,BryanT
中科院分区:
文献类型:
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作者:
Ouyang,Kelsey;Gamal,Ahmed;Wilkowski,CarolineM;Mahlberg,ScottJ;Carroll,BryanT
Wearable technology has garnered increasing at-tention as a tool for enhancing health care. 1 In recent years, there has been a significant technological revolution in surgery, marked by the introduction of various technologies, including virtual reality devices, sensors, and smart watches. Some researchers propose that smart watches can evaluate surgeons’ ergonomic conditions and performance metrics, which can enhance outcomes of minimally invasive surgeries (MIS). 2 Mohs micrographic surgery, a type of MIS, is commonly performed for immunosuppressed patients, including solid organ transplant recipients, given their increased risk of developing multiple, aggressive skin cancers. 3 Studies have indicated that surgical site infection is the most frequent complication of Mohs surgery and can add unnecessary costs to patients and the health care system. 3, 4 Despite the potential benefits of the use of smart watches in clinical settings, few, if any, have investigated how the use of smart watches may compromise hygiene and safety measures, specifically in the context of dermatologic surgeries. Here, we quantified and identified bacteria colony-forming units (CFUs) on smart watches regularly worn by dermatology medical staff. In addition, we investigated the potential for microbial transfer from smart watches while adhering to the presurgical hand hygiene protocol.We conducted a cross-sectional study that included 17 participants who wear smart watches and have greater than 1 year hand-washing experience in dermatologic surgical settings. Phase 1 of the study involved swabbing of the watch face and wristband from smart watches of 10 recruited participants. Collected samples were plated on Tryptic Soy Agar (TSA) blood agar plates and incubated at 37 C for 48 hours before microbiological identification and colony quantification using 16s rRNA sequencing. In Phase 2, we evaluated the potential for microbial transfer from smart watches worn by 7 participants during a standardized hand hygiene protocol. Assessment of microbial transfer was simulated by use of GloGerm Gel, a visual tool that can be used to evaluate hygiene and aseptic techniques. The gel was applied to watches worn by recruited individuals. Participants were then asked to wear the watches with gel before performing surgical hygiene procedures. Ultraviolet light was used to assess whether gel was transferred from the watches to outside of the glove