Simulation and Analysis of Dynamic Biomolecule Identification Technique Based on Molecular Motors and GMR Effect

Dan Wu, Changzhe Wu, J. Yue, Ming Wang, T. Song
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Abstract

ATP synthase is the minimal molecular motor and a highly efficient rotary machine. Giant magnetoresistance (GMR) effect is the change in electrical resistance that occurs when materials are exposed to a magnetic field. In this paper, a new dynamic biomolecule identification technique is proposed using GMR sensor combined with ATP molecular motors. Molecular motors, attached with magnetic nano-particles, can be rotated by special magnetic field. If there is specific target molecular in the sample combining with the probe molecular which is labeled on the molecular motor, the load of the molecular motor will be changed. So the movement of the molecular motor is changed, which can be detected by GMR sensor. Without the procedure of pre-treating, labeling the sample, and removing the redundant label, the biomolecule identification system could be manufactured in portable size and conveniently used in many fields. A physical model was established to simulate the identification system and a mathematic model was generated to analyze dynamics of molecular motor's rotating. The experiment results and the simulation results are consistent. It certificates the feasibility of this technique to identify biomolecule.
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基于分子马达和GMR效应的动态生物分子识别技术仿真与分析
ATP合酶是最小的分子马达和高效率的旋转机器。巨磁阻(GMR)效应是当材料暴露在磁场中时发生的电阻变化。本文提出了一种利用GMR传感器与ATP分子马达相结合的动态生物分子识别技术。分子马达附着磁性纳米粒子,在特殊的磁场作用下旋转。如果样品中有特定的靶分子与标记在分子马达上的探针分子结合,就会改变分子马达的负载。因此分子马达的运动发生了变化,这种变化可以被GMR传感器检测到。该生物分子识别系统无需预处理、标记、去除冗余标记等步骤,可制作成便携尺寸,可方便地应用于许多领域。建立了识别系统的物理模型,并建立了分子马达旋转动力学分析的数学模型。实验结果与仿真结果一致。验证了该技术用于生物分子识别的可行性。
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