Could metabolic imaging and artificial intelligence provide a novel path to non-invasive aneuploidy assessments? A certain clinical need.

IF 2.1
Fabrizzio Horta, Denny Sakkas, William Ledger, Ewa M Goldys, Robert B Gilchrist
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Abstract

Pre-implantation genetic testing for aneuploidy (PGT-A) via embryo biopsy helps in embryo selection by assessing embryo ploidy. However, clinical practice needs to consider the invasive nature of embryo biopsy, potential mosaicism, and inaccurate representation of the entire embryo. This creates a significant clinical need for improved diagnostic practices that do not harm embryos or raise treatment costs. Consequently, there has been an increasing focus on developing non-invasive technologies to enhance embryo selection. Such innovations include non-invasive PGT-A, artificial intelligence (AI) algorithms, and non-invasive metabolic imaging. The latter measures cellular metabolism through autofluorescence of metabolic cofactors. Notably, hyperspectral microscopy and fluorescence lifetime imaging microscopy (FLIM) have revealed unique metabolic activity signatures in aneuploid embryos and human fibroblasts. These methods have demonstrated high accuracy in distinguishing between euploid and aneuploid embryos. Thus, this review discusses the clinical challenges associated with PGT-A and emphasizes the need for novel solutions such as metabolic imaging. Additionally, it explores how aneuploidy affects cell behaviour and metabolism, offering an opinion perspective on future research directions in this field of research.

代谢成像和人工智能能否提供一种非侵入性非整倍体评估的新途径?某种临床需要。
通过胚胎活检对非整倍体(PGT-A)进行着床前基因检测有助于通过评估胚胎倍性来选择胚胎。然而,临床实践需要考虑胚胎活检的侵入性、潜在的嵌合和对整个胚胎的不准确表征。这就产生了一个重要的临床需求,即改进不伤害胚胎或增加治疗费用的诊断方法。因此,人们越来越关注开发非侵入性技术来增强胚胎选择。这些创新包括非侵入性PGT-A、人工智能(AI)算法和非侵入性代谢成像。后者通过代谢辅助因子的自身荧光来测量细胞代谢。值得注意的是,高光谱显微镜和荧光寿命成像显微镜(FLIM)揭示了非整倍体胚胎和人类成纤维细胞独特的代谢活动特征。这些方法在区分整倍体和非整倍体胚胎方面具有很高的准确性。因此,本综述讨论了与PGT-A相关的临床挑战,并强调需要新的解决方案,如代谢成像。此外,探讨了非整倍体如何影响细胞行为和代谢,为该领域未来的研究方向提供了观点视角。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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