人工智能和传染病:范围和观点。

IF 2.2 4区 医学 Q2 INFECTIOUS DISEASES
S Abbara, Y Crabol, J Goupil de Bouillé, A Dinh, D Morquin
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引用次数: 0

摘要

人工智能(AI)将渗透到传染病实践的各个方面——从预防和公共卫生监测到流行病管理和床边护理。常规护理数据(实验室结果、用药单、进度记录)和研究生成的数据集现在为最先进的机器学习(ML)管道提供动力,从而提高诊断、预后、抗菌药物管理水平,并通过结合这两种来源,加速药物发现。在诊断方面,现在在胸部图像上标记肺炎或结核病的深度网络越来越能够识别和定位整个身体几乎更多的感染过程,同时预测病原体身份和常规微生物学的抗菌素耐药性。在电子健康记录上训练的预后模型在预测临床恶化或术后败血症方面优于传统评分,能够更早地进行有针对性的干预。预测分析还可以通过融合实时药物监测数据来个性化抗菌药物剂量。大型语言模型(llm)通过将非结构化的临床叙述转化为适合预测建模的结构化表型,自动总结患者遭遇,生成罕见疾病的合成队列,以及在患者床边提供实时会话决策支持,建立在这些进步的基础上。尽管取得了快速进展,但在现实世界的部署仍面临着一些障碍:高昂的计算和许可成本、特定于供应商的实施限制、有限的跨站点模型可移植性,以及对安全、偏见和网络安全风险的分散治理。严格的、基于生命周期的评估框架——包括外部验证、成本效益分析和部署后监控——是确保安全、公平和可持续的人工智能采用所必需的。这篇综述综合了目前的应用、证据优势和未解决的挑战,并提出了一个将技术创新与临床和监管现实相结合的转化路线图。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Artificial intelligence and infectious diseases: Scope and perspectives.

Artificial intelligence (AI) is set to permeate every facet of infectious disease practice-from prevention and public health surveillance to epidemic management and bedside care. Routine care data (laboratory results, medication orders, progress notes) and research-generated datasets now fuel state-of-the-art machine-learning (ML) pipelines that sharpen diagnosis, prognosis, antimicrobial stewardship, and, by combining both sources, accelerate drug discovery. In diagnostics, deep networks that now flag pneumonia or tuberculosis on chest images are increasingly able to identify-and localize-virtually more infectious processes throughout the body, while simultaneously predicting pathogen identity and antimicrobial resistance from routine microbiology. Prognostic models trained on Electronic Health Records surpass traditional scores in anticipating clinical deterioration or postoperative sepsis, enabling earlier targeted interventions. Predictive analytics can also personalize antimicrobial dosing by fusing real-time drug-monitoring data. Large language models (LLMs) build upon these advances by transforming unstructured clinical narratives into structured phenotypes suitable for predictive modeling, automatically summarizing patient encounters, generating synthetic cohorts for rare conditions, and providing real-time conversational decision support at the patient's bedside. Despite rapid progress, real-world deployment faces hurdles: high computational and licensing costs, vendor-specific implementation constraints, limited cross-site model transferability, and fragmented governance of safety, bias, and cybersecurity risks. Rigorous, lifecycle-based evaluation frameworks-covering external validation, cost-effectiveness analysis, and post-deployment monitoring-are required to ensure safe, equitable, and sustainable AI adoption. This review synthesizes current applications, evidential strengths, and unresolved challenges, and proposes a translational roadmap aligning technical innovation with clinical and regulatory realities.

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来源期刊
Infectious diseases now
Infectious diseases now Medicine-Infectious Diseases
CiteScore
7.10
自引率
2.90%
发文量
116
审稿时长
40 days
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