Enhancement of Signal-to-Background Ratio in Molecular Vibrational Signal Extraction by Stimulated Emission Depletion Mechanism

IF 3.7 Q2 MATERIALS SCIENCE, MULTIDISCIPLINARY
Ge Wang, Lizhen Chen, Qiuqiang Zhan, Guangyou Fang, Yisen Wang
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Abstract

Herein, a novel approach is presented to mitigate the fluorescence interference during the detection of vibrational signal via the stimulated emission depletion (STED). STED is the mechanism commonly employed in optical imaging; however, its application should not be confined solely to this field. To explore additional possibilities, a novel application of STED in vibrational spectroscopy detection is introduced. Vibrational spectroscopy is a widely used technique for the material detection and identification, but its sensitivity is influenced by impurity signals, especially the fluorescence. The proposed method is capable of suppressing fluorescence without influencing vibrational signal. At the low concentration of fluorescent impurities, the signal-to-background ratio of vibrational spectroscopy is 2.6 times as high as that without this method. The introduction of depletion light can enhance the detection of vibrational signals, resulting in more optimal signal detection. A promising new application of STED other than super-resolution imaging is investigated.

Abstract Image

利用受激发射耗尽机制提高分子振动信号提取中的信本比
本文提出了一种利用受激发射耗尽法(STED)减轻振动信号检测过程中荧光干扰的新方法。STED是光学成像中常用的机制;然而,它的应用不应仅仅局限于这一领域。为了探索更多的可能性,本文介绍了STED在振动光谱检测中的新应用。振动光谱是一种广泛应用于物质检测和鉴定的技术,但其灵敏度受杂质信号,特别是荧光信号的影响。该方法能够在不影响振动信号的情况下抑制荧光。在荧光杂质浓度较低时,振动光谱的信本比是未采用该方法时的2.6倍。损耗光的引入可以增强对振动信号的检测,从而实现更优的信号检测。研究了STED在超分辨率成像之外的一种有前景的新应用。
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