In-Plane Mode Resonant Cantilever Sensor to Detect Kinetic/Thermodynamic Parameters for Aptamer-Ligand Binding

Xuefeng Wang, Yarong Cheng, Shengran Cai, P. Xu, Ying Chen, Haitao Yu, Xinxin Li
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Abstract

An in-plane mode resonant cantilever sensor working in solution is developed for detecting physicochemical parameters of aptamer-ligand binding. The cantilever body is enclosed inside a hydrophobic parylene shell, and a ring-shaped hydrophobic slit is designed to prevent the solution leak inside the shell, allowing the cantilever structure keeps high-Q resonance in air while the binding sensing pool is exposed to aqueous solution for the biological binding. The resonant cantilever continuously records the frequency-shift according to the binding induced mass change on the cantilever. The frequency signal is useful for revealing kinetic/thermodynamic mechanism of the interface binding by fitting the detected sensorgram with classic equations. This detection strategy is label-free and calibration-free, with all the measurement completed using one device to avoid system error.
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平面模式共振悬臂传感器检测适配体-配体结合动力学/热力学参数
研制了一种用于检测适配体与配体结合的物理化学参数的平面内谐振悬臂式传感器。悬臂体封闭在疏水性聚二甲苯壳体内,并设计环状疏水狭缝防止壳体内溶液泄漏,使悬臂结构在空气中保持高q共振,同时结合传感池暴露于水溶液中进行生物结合。谐振悬臂梁根据束缚引起的悬臂梁上的质量变化连续记录频率的变化。频率信号通过将检测到的传感器图与经典方程拟合,有助于揭示界面结合的动力学/热力学机制。这种检测策略是无标签和校准,所有的测量完成使用一个设备,以避免系统误差。
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