Lai David, Smith Gary D, Takayama Shuichi
Department of Biomedical Engineering, University of Michigan, Ann Arbor, MI 48109, USA.
J Biophotonics. 2012 Aug;5(8-9):650-60. doi: 10.1002/jbio.201200041. Epub 2012 Jun 15.
With the benefits of automation, sensitivity and precision, microfluidics has enabled complex and otherwise tedious experiments. Lately, lab-on-a-chip (LOC) has proven to be a useful tool for enhancing non-invasive assisted reproductive technology (ART). Non-invasive gamete and embryo assessment has largely been through periodic morpohological assessment using optical microscopy and early LOC ART was the same. As we realize that morphological assessment is a poor indication of gamete or embryo health, more advanced biophotonics has emerged in LOC ART to assay for metabolites or gamete separation via optoelectrical tweezers. Off-chip, even more advanced biophotonics with broad spectrum analysis of metabolites and secretomes has been developed that show even higher accuracy to predicting reproductive potential. The integration of broad spectrum metabolite analysis into LOC ART is an exciting future that merges automation and sensitivity with the already highly accurate and strong predictive power of biophotonics.
凭借自动化、灵敏度和精度等优势,微流控技术使得复杂且原本繁琐的实验成为可能。最近,芯片实验室(LOC)已被证明是增强非侵入性辅助生殖技术(ART)的有用工具。非侵入性配子和胚胎评估主要通过光学显微镜进行定期形态学评估,早期的芯片实验室辅助生殖技术也是如此。随着我们认识到形态学评估并不能很好地指示配子或胚胎的健康状况,更先进的生物光子学已出现在芯片实验室辅助生殖技术中,用于通过光电镊子检测代谢物或分离配子。在芯片外,已经开发出了对代谢物和分泌组进行广谱分析的更先进的生物光子学技术,其在预测生殖潜力方面显示出更高的准确性。将广谱代谢物分析整合到芯片实验室辅助生殖技术中是一个令人兴奋的未来,它将自动化和灵敏度与生物光子学已经很高的准确性和强大的预测能力相结合。