探讨减少地板微生物负担与医疗保健相关感染影响之间的关系

Caitlin Crews-Stowe, Elizabeth Lambert, Lori Berthelot, Katherine Baumgarten
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引用次数: 0

摘要

背景:卫生保健地板是导致卫生保健相关感染的潜在病原体的载体和/或来源,医院地板经常被病原体严重污染,如艰难梭菌和耐甲氧西林金黄色葡萄球菌。然而,还没有明确的研究将减少最低负担与减少人道主义援助联系起来。我们试图评估用于持续消毒的新兴技术及其对HAIs的潜在影响。本研究旨在探讨减少地板微生物负担与卫生保健相关感染之间的潜在关系。方法:前瞻性研究于2021年11月至2022年6月在路易斯安那州新奥尔良附近一家180张床位的郊区医院的22张床位的内科-外科重症监护室进行。使用无菌预湿海绵,从整个单位10个区域的地板采集样本,包括2个护士站,医生图表区和7个病房。先进的光催化氧化(aPCO)设备随后安装在整个ICU的HVAC管道系统中并激活。在研究的前5个月,每4周对相同的地板表面进行环境表面采样。在整个研究期间,还对HAIs进行了跟踪。在研究期间,使用中和地板清洁剂的设施正常清洁地板协议保持不变并得到遵守。使用重复方法方差分析和适当的事后分析计算表面负荷的变化。采用χ 2分析比较卫生保健相关感染率。结果:总体而言,从基线到最终的激活后测试,地板环境表面负担有99.6%的统计学显著下降(图1)。平均菌落形成单位计数(CFU)从每100平方厘米318,850 CFU下降到每100平方厘米2988 CFU。在研究期间,与去年同期和研究开始前的6个月相比,该单位公开报告的医疗保健相关感染(HO-MRSA, CLABSI, HO-CDI)也有统计学上的显著下降(图2)。结论:先进的光催化氧化技术减少了高流量重症监护病房地板上的微生物负担。与医疗保健相关的感染也出现了统计上的显著下降。本研究强调了一种新的aPCO技术及其在减少微生物负担和医疗保健相关感染方面的功效,尽管在实践中没有改变。披露:没有
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Exploring the relationship between the reduction of floor microbial burden and the impact on healthcare-associated infections
Background: Healthcare floors are a vehicle and/or source for potential pathogens that cause healthcare associated infections, and hospital floors are often heavily contaminated with pathogens such as Clostridioides difficile and methicillin-resistant Staphylococcus aureus . However, definitive research linking reductions in floor burden to reductions in HAIs has not yet been established. We sought to evaluate emerging technology for continuous disinfection and its potential impact on HAIs. This study was designed to explore the potential relationship between the reduction of microbial burden of floors and healthcare associated infections. Methods: A prospective study was conducted in a 22-bed medical-surgical intensive care unit in a 180-bed suburban hospital near New Orleans, Louisiana, from November 2021 to June 2022. Using sterile, premoistened sponges, samples were collected from the floors of 10 areas throughout the unit including 2 nurses’ stations, the physician charting area, and 7 patient rooms. The advanced photocatalytic oxidation (aPCO) equipment was then installed in the HVAC ductwork throughout the ICU and activated. Environmental surface sampling of the same floor surfaces was then repeated every 4 weeks for the first 5 months of the study. HAIs were also tracked throughout the entire study period. The facility’s normal cleaning floor protocols using a neutralizing floor cleaner were unchanged and followed during the study. Changes in surface burden were calculated using a repeated-methods ANOVA with post hoc analyses as appropriate. Rates of healthcare associated infections were compared using χ 2 analyses. Results: Overall, there was a 99.6% statistically significant decrease in floor environmental surface burden from the baseline to the final postactivation test (Fig. 1). The average colony forming unit count (CFU) decreased from 318,850 CFU per 100 cm 2 to just 2,988 CFU per 100 cm 2 . The unit also saw a statistically significant decrease in publicly reported healthcare associated infections (HO-MRSA, CLABSI, HO-CDI) during the study period compared to the same period a year prior and in the 6 months immediately prior to the beginning of the study (Fig. 2). Conclusions: Advanced photocatalytic oxidation technology resulted in a reduction of microbial burden on the floors of a high-traffic intensive care unit. Statistically significant decreases in healthcare-associated infections was also seen. This study highlights a novel aPCO technology and its efficacy at reducing microbial burden and healthcare-associated infections despite no change in practice. Disclosures: None
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