Label-free detection of angiogenesis biomarkers using Bloch surface waves on one dimensional photonic crystals

A. Sinibaldi, A. Anopchenko, A. Occhicone, F. Michelotti, N. Danz, P. Munzert, S. Schmieder, F. Sonntag, R. Chandrawati, S. Rana, M. Stevens, L. Napione
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Abstract

We describe the design and fabrication of biochips based on one dimensional photonic crystals supporting Bloch surface waves for label-free optical biosensing. The planar stacks of the biochips are composed of silica, tantala and titania that were deposited using plasma ion assisted evaporation under high vacuum conditions. The biochip surfaces were functionalized by silanization and appropriate fluidic cells were designed to operate in an automated platform. An angularly resolved optical sensing apparatus was assembled to carry out the sensing studies. The angular operation is obtained by a focused laser beam at a fixed wavelength and detection of the angular reflectance spectrum by means of an array detector. Practical application of the sensor was demonstrated by detecting a specific glycoprotein, Angiopoietin 2, that is involved in angiogenesis and inflammation processes. The protocol used for the label-free detection of Angiopoietin 2 is described and the results of an exemplary assay are given, confirming that an efficient detection can be achieved.
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利用一维光子晶体上的布洛赫表面波无标记检测血管生成生物标志物
我们描述了基于一维光子晶体支持布洛赫表面波的生物芯片的设计和制造,用于无标签光学生物传感。生物芯片的平面堆叠由二氧化硅、钽和二氧化钛组成,在高真空条件下使用等离子离子辅助蒸发沉积。生物芯片表面通过硅烷化实现功能化,并设计合适的流体细胞在自动化平台中运行。装配了角分辨光学传感装置进行传感研究。角操作是通过固定波长的聚焦激光束和阵列探测器的角反射光谱检测来实现的。通过检测参与血管生成和炎症过程的特定糖蛋白血管生成素2,证明了该传感器的实际应用。描述了用于血管生成素2无标记检测的协议,并给出了示例性测定的结果,确认可以实现有效的检测。
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