利用带有惠斯通电桥电路的自旋阀 GMR 传感器检测绿色合成的 Fe3O4/ 壳聚糖

Shania Garcia, Ni’matil Mabarroh, Rona Cuana, H. Ardiyanti, N. Istiqomah, E. Suharyadi
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摘要

检测磁性纳米粒子(MNPS)标签对于确定生物传感技术中巨磁电阻(GMR)传感器的性能至关重要。本研究发现了绿色合成的 Fe3O4/Chitosan 在 GMR 传感器上的有效性,而这一点从未被探索过。MNPS 标签是通过共沉淀法合成的,该方法基于绿色合成路线,具有成本低、无毒、减少废物产生等优点。壳聚糖具有生物降解性、生物相容性和亲水性,因此被认为是作为 Fe3O4 稳定剂的最佳聚合物。研究了几种浓度的 Fe3O4/壳聚糖的特性及其对传感器信号的影响。在 Si/SiO2 基质上使用基于自旋阀的传感器测量 Fe3O4/壳聚糖,该传感器具有 Ta(2nm)/Ir20Mn80(10nm)/Co90Fe10(3nm)/Co84Fe10B4(10nm)/Ta(5nm)结构。Fe3O4/Chitosan 呈球形,具有反尖晶石立方结构。Fe3O4/Chitosan (1:1) 和 Fe3O4/Chitosan (2:1) 的晶粒大小分别为 7.9 和 7.5 nm。傅立叶变换红外光谱显示,Fe3O4/壳聚糖的 NH2 弯曲位于 1560 cm-1,C-O-C 伸展位于 1386 cm-1,Fe-O 伸展位于 580 cm-1。结果表明壳聚糖有效地包覆了 Fe3O4 表面。在 Fe3O4/壳聚糖(1:1)和 Fe3O4/壳聚糖(2:1)的情况下,GMR 传感器的灵敏度分别提高到 0.04 mV/mg/mL 和 0.05 mV/mg/mL。灵敏度的增加是由于二磁性材料成分的减少、晶体尺寸的减小以及 Fe3O4/Chitosan 饱和磁化的增加。绿色合成的 Fe3O4/Chitosan 可在 60 秒内通过 GMR 传感器提供的低外加磁场进行检测,作为一种磁性标签性能优异,未来可应用于生物传感器。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Detection of Green-Synthesized Fe3O4/ Chitosan Using Spin Valve GMR Sensor with Wheatstone Bridge Circuit
Detection of magnetic nanoparticles (MNPS) label is essential to determine the performance of giant magnetoresistance (GMR) sensors in biosensing technology. This research identifies the potency of green-synthesized Fe3O4/Chitosan on GMR sensors, which has never been explored. MNPS label was synthesized by the coprecipitation method based on the green synthesis route because cost-effective, non-toxic, and reduces waste production. Chitosan is considered the best polymer candidate as a stabilizer of Fe3O4 because they are biodegradable, biocompatible, and hydrophilic. The characteristics of Fe3O4/Chitosan with several concentrations and the effect on sensor signals were investigated. Measurement of Fe3O4/Chitosan using a spin-valve based sensor with a Ta (2nm)/Ir20Mn80(10nm)/Co90Fe10(3nm)/Co84Fe10B4(10nm)/Ta (5nm) structure on Si/SiO2 substrate. Fe3O4/Chitosan has a spherical shape with an inverse spinel cubic structure. The crystallite sizes of Fe3O4/Chitosan (1:1) and Fe3O4/Chitosan (2:1) are 7.9 and 7.5 nm, respectively. Fourier transforms infrared spectra of Fe3O4/Chitosan showed the NH2 bending at 1560 cm−1, C-O-C stretching at 1386 cm−1, and Fe-O stretching at 580 cm−1. The results indicate that chitosan effectively coated the surface of Fe3O4. The sensitivity of the GMR sensor increased to 0.04 mV/mg/mL and 0.05 mV/mg/mL, in the case of Fe3O4/Chitosan (1:1) and Fe3O4/Chitosan (2:1). The increase in the sensitivity was caused by the decrease in diamagnetic material composition, crystallite size and the increase in the saturation magnetization of Fe3O4/Chitosan. Green-synthesized Fe3O4/Chitosan can be detected by GMR sensor by providing a low external magnetic field within the 60s and reach ruthless performance as a magnetic label to be applied to biosensors application in the future.
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