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诊断结核病:新技术让我们(不能)做什么?

Diagnosing Tuberculosis: What Do New Technologies Allow Us to (Not) Do?

机构信息

DSI-NRF Centre of Excellence for Biomedical Tuberculosis Research, South African Medical Research Council Centre for Tuberculosis Research, Division of Molecular Biology and Human Genetics, Faculty of Medicine and Health Sciences, Stellenbosch University, Cape Town, South Africa.

Division of Pulmonology, Department of Medicine, Tygerberg Hospital, Stellenbosch University, Cape Town, South Africa.

出版信息

Respiration. 2022;101(9):797-813. doi: 10.1159/000525142. Epub 2022 Jun 27.

DOI:10.1159/000525142
PMID:35760050
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC9533455/
Abstract

New tuberculosis (TB) diagnostics are at a crossroads: their development, evaluation, and implementation is severely damaged by resource diversion due to COVID-19. Yet several technologies, especially those with potential for non-invasive non-sputum-based testing, hold promise for efficiently triaging and rapidly confirming TB near point-of-care. Such tests are, however, progressing through the pipeline slowly and will take years to reach patients and health workers. Compellingly, such tests will create new opportunities for difficult-to-diagnose populations, including primary care attendees (all-comers in high burden settings irrespective of reason for presentation) and community members (with early stage disease or risk factors like HIV), many of whom cannot easily produce sputum. Critically, all upcoming technologies have limitations that implementers and health workers need to be cognizant of to ensure optimal deployment without undermining confidence in a technology that still offers improvements over the status quo. In this state-of-the-art review, we critically appraise such technologies for active pulmonary TB diagnosis. We highlight strengths, limitations, outstanding research questions, and how current and future tests could be used in the presence of these limitations and uncertainties. Among triage tests, CRP (for which commercial near point-of-care devices exist) and computer-aided detection software with digital chest X-ray hold promise, together with late-stage blood-based assays that detect host and/or microbial biomarkers; however, aside from a handful of prototypes, the latter category has a shortage of promising late-stage alternatives. Furthermore, positive results from new triage tests may have utility in people without TB; however, their utility for informing diagnostic pathways for other diseases is under-researched (most sick people tested for TB do not have TB). For confirmatory tests, few true point-of-care options will be available soon; however, combining novel approaches like tongue swabs with established tests like Ultra have short-term promise but first require optimizations to specimen collection and processing procedures. Concerningly, no technologies yet have compelling evidence of meeting the World Health Organization optimal target product profile performance criteria, especially for important operational criteria crucial for field deployment. This is alarming as the target product profile criteria are themselves almost a decade old and require urgent revision, especially to cater for technologies made prominent by the COVID-19 diagnostic response (e.g., at-home testing and connectivity solutions). Throughout the review, we underscore the importance of how target populations and settings affect test performance and how the criteria by which these tests should be judged vary by use case, including in active case finding. Lastly, we advocate for health workers and researchers to themselves be vocal proponents of the uptake of both new tests and those - already available tests that remain suboptimally utilized.

摘要

新的结核病(TB)诊断方法正处于十字路口:由于 COVID-19,资源转移严重损害了它们的开发、评估和实施。然而,一些技术,特别是那些具有潜在非侵入性非痰基检测能力的技术,有望在靠近护理点的地方高效地对结核病进行分诊和快速确认。然而,这些检测方法在管道中进展缓慢,需要数年时间才能惠及患者和卫生工作者。引人注目的是,这些检测方法将为难以诊断的人群创造新的机会,包括初级保健就诊者(无论就诊原因如何,在高负担环境中所有就诊者)和社区成员(患有早期疾病或 HIV 等风险因素),他们中的许多人难以产生痰液。至关重要的是,所有即将推出的技术都有局限性,实施者和卫生工作者需要意识到这一点,以确保在不破坏对仍能改善现状的技术的信心的情况下,实现最佳部署。在这篇最新的综述中,我们批判性地评估了这些用于活动性肺结核诊断的技术。我们强调了这些技术的优势、局限性、悬而未决的问题,以及当前和未来的检测方法如何在存在这些局限性和不确定性的情况下使用。在分诊检测中,CRP(具有商业近护理点设备)和数字胸片的计算机辅助检测软件,以及检测宿主和/或微生物生物标志物的晚期血液检测方法具有一定的前景;然而,除了少数原型外,后一类方法缺乏有前途的晚期替代品。此外,新的分诊检测方法的阳性结果可能对没有结核病的人有用;然而,它们在为其他疾病的诊断途径提供信息方面的实用性尚未得到充分研究(大多数接受结核病检测的病人都没有结核病)。对于确证检测,很快就会有很少的真正的即时检测方法;然而,将新型方法(如舌拭子)与现有的方法(如 Ultra)结合起来具有短期的前景,但首先需要对标本采集和处理程序进行优化。令人担忧的是,还没有任何技术有令人信服的证据符合世界卫生组织最佳目标产品特性性能标准,尤其是对于现场部署至关重要的重要操作标准。这令人担忧,因为目标产品特性标准本身已经有近十年的历史,需要紧急修订,特别是要满足因 COVID-19 诊断反应而突出的技术(例如,家庭检测和连接解决方案)。在整篇综述中,我们强调了目标人群和环境如何影响检测性能,以及这些测试应根据用例进行判断的标准(包括在主动病例发现中)如何因情况而异。最后,我们主张卫生工作者和研究人员自己成为新测试和那些已经得到应用但利用率仍不理想的测试的积极支持者。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/4b85/9533455/40f893a5be47/res-0101-0797-g02.jpg
https://cdn.ncbi.nlm.nih.gov/pmc/blobs/4b85/9533455/d872eda3337c/res-0101-0797-g01.jpg
https://cdn.ncbi.nlm.nih.gov/pmc/blobs/4b85/9533455/40f893a5be47/res-0101-0797-g02.jpg
https://cdn.ncbi.nlm.nih.gov/pmc/blobs/4b85/9533455/d872eda3337c/res-0101-0797-g01.jpg
https://cdn.ncbi.nlm.nih.gov/pmc/blobs/4b85/9533455/40f893a5be47/res-0101-0797-g02.jpg

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Use of a molecular bacterial load assay to distinguish between active TB and post-TB lung disease.
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