一种人工智能算法的性能,用于解释马拉维肺炎住院儿童的肺音。

IF 4.3 3区 医学 Q1 PUBLIC, ENVIRONMENTAL & OCCUPATIONAL HEALTH
Nadia E Hoekstra, Maganizo B Chagomerana, Zachary H Smith, Annapurna Kala, Ian McLane, Charl Verwey, Daniel Olson, W Chris Buck, Justin Mulindwa, Alex Gaudio, Sunaina Kapoor, Holly B Schuh, Msandeni Chiume, Elizabeth Fitzgerald, Mounya Elhilali, Tisungane Mvalo, Mina Hosseinipour, Eric D McCollum
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引用次数: 0

摘要

背景:肺炎是全球五岁以下儿童死亡的主要原因。世界卫生组织(世卫组织)肺炎诊断指南依赖于非特异性临床发现。肺听诊可以提高肺炎的诊断,但传统听诊器存在实施上的挑战。为了解决这个问题,我们开发了一个人工智能(AI)支持的数字听诊系统。我们评估了该系统在马拉维重症肺炎儿童中的AI肺音分析算法。方法:我们招募了年龄为2-59个月、因世卫组织定义的重症肺炎住院的儿童。一位研究医师用数字听诊器记录了6个胸部位置的肺部声音。录音由经过培训和认证的医师聆听小组进行去识别、过滤和解释。通过人工智能算法分析可解释的录音。我们评估了人工智能算法和聆听小组之间的正常(没有肺外音)与异常(肺外音存在)分类的一致性,使用原始的百分比一致性kappa统计数据,未经调整和调整了偶然一致性。结果:我们招募了100名儿童,分析了95名具有可解释记录的儿童。中位年龄为12.6个月(四分位数差(IQR) = 5.4, 19.0), 54%(51 / 95)为女性。在可解释的记录中,59.2%(294 / 497)的胸部位置异常,而人工智能算法的这一比例为52.7%(262 / 497)。听力小组和AI算法在83.1%(413 / 497)的胸位(未调整kappa 0.7;调整kappa 0.7)和91.6%(87/95)的患者(未调整kappa 0.7;调整kappa 0.8)的分类上达成一致。与听力面板相比,人工智能算法识别异常肺音的敏感性和特异性分别为胸部位置的80.3%和87.2%,患者的96.3%和66.7%。结论:该AI肺音分类算法能准确识别重症肺炎患儿肺音异常。接下来的步骤包括训练算法来识别无法解释的录音和不同的异常声音。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Performance of an artificial intelligence algorithm for interpreting lung sounds from children hospitalised with pneumonia in Malawi.

Performance of an artificial intelligence algorithm for interpreting lung sounds from children hospitalised with pneumonia in Malawi.

Performance of an artificial intelligence algorithm for interpreting lung sounds from children hospitalised with pneumonia in Malawi.

Performance of an artificial intelligence algorithm for interpreting lung sounds from children hospitalised with pneumonia in Malawi.

Background: Pneumonia is a leading cause of death in under five year olds globally. World Health Organization (WHO) pneumonia diagnostic guidelines rely on non-specific clinical findings. Lung auscultation could improve pneumonia diagnosis, but conventional stethoscopes have implementation challenges. To address this, we developed an artificial intelligence (AI)-enabled digital auscultation system. We evaluated the system's AI lung sound analysis algorithm in children with severe pneumonia in Malawi.

Methods: We enrolled children aged 2-59 months hospitalised with WHO-defined severe pneumonia. A study physician recorded lung sounds with a digital stethoscope at six chest positions. Recordings were de-identified, filtered, and interpreted by a trained and certified physician listening panel. Interpretable recordings were analysed by the AI algorithm. We evaluated the agreement of normal (absence of adventitial lung sounds) vs. abnormal (presence of adventitial lung sounds) classifications, by chest position and by patient, between the AI algorithm and the listening panel using raw percent agreement kappa statistics, both unadjusted and adjusted for chance agreement.

Results: We enrolled 100 children and analysed 95 with interpretable recordings. The median age was 12.6 months (interquartile range (IQR) = 5.4, 19.0) and 54% (51 / 95) were female. Among interpretable recordings, 59.2% (294 / 497) of chest positions were abnormal per the listening panel compared to 52.7% (262 / 497) per the AI algorithm. The listening panel and AI algorithm agreed on classifications in 83.1% (413 / 497) of chest positions (unadjusted kappa 0.7; adjusted kappa 0.7) and 91.6% (87/95) of patients (unadjusted kappa 0.7; adjusted kappa 0.8). The AI algorithm's sensitivity and specificity for identifying abnormal lung sounds, compared to the listening panel, were 80.3% and 87.2% for chest positions and 96.3%, and 66.7% for patients.

Conclusions: This AI lung sound classification algorithm accurately identified abnormal lung sounds in children with severe pneumonia. Next steps include training the algorithm to identify uninterpretable recordings and different abnormal sounds.

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来源期刊
Journal of Global Health
Journal of Global Health PUBLIC, ENVIRONMENTAL & OCCUPATIONAL HEALTH -
CiteScore
6.10
自引率
2.80%
发文量
240
审稿时长
6 weeks
期刊介绍: Journal of Global Health is a peer-reviewed journal published by the Edinburgh University Global Health Society, a not-for-profit organization registered in the UK. We publish editorials, news, viewpoints, original research and review articles in two issues per year.
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