Zhi Ting Ye, Shen Fu Tseng, Shang Xuan Tsou, Chun Wei Tsai
{"title":"用于无创葡萄糖检测的高灵敏度倒装芯片蓝色 Mini-LED 微型光学仪器。","authors":"Zhi Ting Ye, Shen Fu Tseng, Shang Xuan Tsou, Chun Wei Tsai","doi":"10.1186/s11671-023-03948-9","DOIUrl":null,"url":null,"abstract":"<p><p>The colorimetric detection of glucose typically involves a peroxidase reaction producing a color, which is then recorded and analyzed. However, enzyme detection has difficulties with purification and storage. In addition, replacing enzyme detection with chemical methods involves time-consuming steps such as centrifugation and purification and the optical instruments used for colorimetric detection are often bulky and not portable. In this study, ammonium metavanadate and sulfuric acid were used to prepare the detection solution instead of peroxidase to produce color. We also analyzed the effect of different concentrations of detection solution on absorbance sensitivity. Finally, a flip chip blue Mini-LEDs miniaturized optical instrument (FC blue Mini-LEDs MOI) was designed for glucose detection using optics fiber, collimating lenses, a miniaturized spectrometer, and an FC Blue Mini-LEDs with a center wavelength of 459 nm. While detecting glucose solutions in the concentration range of 0.1-10 mM by the developed MOI, the regression equation of y = 0.0941x + 0.1341, R<sup>2</sup> of 0.9744, the limit of detection was 2.15 mM, and the limit of quantification was 7.163 mM. Furthermore, the preparation of the detection solution only takes 10 min, and the absorbance sensitivity of the optimized detection solution could be increased by 2.3 times. The detection solution remained stable with only a 0.6% decrease in absorbance compared to the original after storing it in a refrigerated environment at 3 °C for 14 days. The method proposed in this study for detecting glucose using FC blue light Mini-LEDs MOI reduces the use of peroxidase. In addition, it has a wide detection range that includes blood as well as non-invasive saliva and tear fluids, providing patients with a miniaturized, highly sensitive, and quantifiable glucose detection system.</p>","PeriodicalId":72828,"journal":{"name":"Discover nano","volume":"19 1","pages":"6"},"PeriodicalIF":0.0000,"publicationDate":"2024-01-04","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"https://www.ncbi.nlm.nih.gov/pmc/articles/PMC10766880/pdf/","citationCount":"0","resultStr":"{\"title\":\"High-sensitivity flip chip blue Mini-LEDs miniaturized optical instrument for non-invasive glucose detection.\",\"authors\":\"Zhi Ting Ye, Shen Fu Tseng, Shang Xuan Tsou, Chun Wei Tsai\",\"doi\":\"10.1186/s11671-023-03948-9\",\"DOIUrl\":null,\"url\":null,\"abstract\":\"<p><p>The colorimetric detection of glucose typically involves a peroxidase reaction producing a color, which is then recorded and analyzed. 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While detecting glucose solutions in the concentration range of 0.1-10 mM by the developed MOI, the regression equation of y = 0.0941x + 0.1341, R<sup>2</sup> of 0.9744, the limit of detection was 2.15 mM, and the limit of quantification was 7.163 mM. Furthermore, the preparation of the detection solution only takes 10 min, and the absorbance sensitivity of the optimized detection solution could be increased by 2.3 times. The detection solution remained stable with only a 0.6% decrease in absorbance compared to the original after storing it in a refrigerated environment at 3 °C for 14 days. The method proposed in this study for detecting glucose using FC blue light Mini-LEDs MOI reduces the use of peroxidase. 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引用次数: 0
摘要
葡萄糖的比色检测通常是过氧化物酶反应产生颜色,然后记录和分析颜色。然而,酶检测在纯化和储存方面存在困难。此外,用化学方法代替酶检测还涉及离心和纯化等耗时步骤,而且用于比色检测的光学仪器通常体积庞大,不便于携带。在本研究中,我们使用偏钒酸铵和硫酸来制备检测溶液,而不是使用过氧化物酶来产生颜色。我们还分析了不同浓度的检测溶液对吸光度灵敏度的影响。最后,我们利用光纤、准直透镜、微型光谱仪和中心波长为 459 nm 的 FC 蓝色 Mini-LEDs 设计了用于葡萄糖检测的倒装芯片蓝色 Mini-LEDs 微型光学仪器(FC 蓝色 Mini-LEDs MOI)。使用所开发的 MOI 检测浓度范围为 0.1-10 mM 的葡萄糖溶液时,回归方程为 y = 0.0941x + 0.1341,R2 为 0.9744,检测限为 2.15 mM,定量限为 7.163 mM。此外,配制检测溶液仅需 10 分钟,优化后的检测溶液的吸光度灵敏度可提高 2.3 倍。检测溶液在 3 ℃ 的冷藏环境中保存 14 天后仍保持稳定,吸光度与原液相比仅下降了 0.6%。本研究提出的使用 FC 蓝光微型 LED MOI 检测葡萄糖的方法减少了过氧化物酶的使用。此外,它的检测范围很广,包括血液、无创唾液和泪液,为患者提供了一个微型化、高灵敏度和可量化的葡萄糖检测系统。
High-sensitivity flip chip blue Mini-LEDs miniaturized optical instrument for non-invasive glucose detection.
The colorimetric detection of glucose typically involves a peroxidase reaction producing a color, which is then recorded and analyzed. However, enzyme detection has difficulties with purification and storage. In addition, replacing enzyme detection with chemical methods involves time-consuming steps such as centrifugation and purification and the optical instruments used for colorimetric detection are often bulky and not portable. In this study, ammonium metavanadate and sulfuric acid were used to prepare the detection solution instead of peroxidase to produce color. We also analyzed the effect of different concentrations of detection solution on absorbance sensitivity. Finally, a flip chip blue Mini-LEDs miniaturized optical instrument (FC blue Mini-LEDs MOI) was designed for glucose detection using optics fiber, collimating lenses, a miniaturized spectrometer, and an FC Blue Mini-LEDs with a center wavelength of 459 nm. While detecting glucose solutions in the concentration range of 0.1-10 mM by the developed MOI, the regression equation of y = 0.0941x + 0.1341, R2 of 0.9744, the limit of detection was 2.15 mM, and the limit of quantification was 7.163 mM. Furthermore, the preparation of the detection solution only takes 10 min, and the absorbance sensitivity of the optimized detection solution could be increased by 2.3 times. The detection solution remained stable with only a 0.6% decrease in absorbance compared to the original after storing it in a refrigerated environment at 3 °C for 14 days. The method proposed in this study for detecting glucose using FC blue light Mini-LEDs MOI reduces the use of peroxidase. In addition, it has a wide detection range that includes blood as well as non-invasive saliva and tear fluids, providing patients with a miniaturized, highly sensitive, and quantifiable glucose detection system.