验证可重复使用医疗器械清洁评估的设备特征方法。

Q4 Medicine Biomedical Instrumentation and Technology Pub Date : 2023-01-01 Epub Date: 2024-01-03 DOI:10.2345/0899-8205-57.4.143
Terra A Kremer, Jeff Felgar, Neil Rowen, Gerald McDonnell
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引用次数: 0

摘要

在许多领域(如终端灭菌),确定最坏情况下的设备(或设备组)特征是一种行之有效的验证方法,用于确定工艺的有效性和要求,包括可重复使用的医疗设备。清洁验证的设备特征方法有许多优点,与测试整个设备的替代性药典方法相比,它是一种更保守的方法。通过专注于器械特征,可以将最具挑战性的验证变量分离出来,并在最难清洁的特征上进行研究。设备特征方法可用于开发设计特征数据库,该数据库可用于设计和验证设备清洁度。它还可用于相应地开发定量清洁分类系统,以增强和创新斯伯丁分类法在降低微生物风险方面的有效性。当前的研究调查了这种验证方法,以验证器械清洁程序的有效性并降低患者风险。这种特征分类方法将有助于在器械制造商和医疗机构之间的重要界面上缩小现有的患者安全差距,从而有效、可靠地处理可重复使用的医疗器械。对器械特征共进行了 56,000 次冲洗,突出了验证的严谨性。作为清洁和微生物质量的关键控制点,从设计特征中生成信息将为未来医疗器械行业和医疗服务的数字化转型(包括自动化)提供依据。
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Validation of the Device Feature Approach for Reusable Medical Device Cleaning Evaluations.

The identification of worst-case device (or device set) features has been a well-established validation approach in many areas (e.g., terminal sterilization) for determining process effectiveness and requirements, including for reusable medical devices. A device feature approach for cleaning validations has many advantages, representing a more conservative approach compared with the alternative compendial method of testing the entirety of the device. By focusing on the device feature(s), the most challenging validation variables can be isolated to and studied at the most difficult-to-clean feature(s). The device feature approach can be used to develop a design feature database that can be used to design and validate device cleanliness. It can also be used to commensurately develop a quantitative cleaning classification system that will augment and innovate the effectiveness of the Spaulding classification for microbial risk reduction. The current study investigated this validation approach to verify the efficacy of device cleaning procedures and mitigate patient risk. This feature categorization approach will help to close the existing patient safety gap at the important interface between device manufacturers and healthcare facilities for the effective and reliable processing of reusable medical devices. A total of 56,000 flushes of the device features were conducted, highlighting the rigor associated with the validation. Generating information from design features as a critical control point for cleaning and microbiological quality will inform future digital transformation of the medical device industry and healthcare delivery, including automation.

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来源期刊
Biomedical Instrumentation and Technology
Biomedical Instrumentation and Technology Computer Science-Computer Networks and Communications
CiteScore
1.10
自引率
0.00%
发文量
16
期刊介绍: AAMI publishes Biomedical Instrumentation & Technology (BI&T) a bi-monthly peer-reviewed journal dedicated to the developers, managers, and users of medical instrumentation and technology.
期刊最新文献
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