A novel computation method for detection of Malaria in RBC using Photonic biosensor.

B M Hemanth Kumar, P C Srikanth, A M Vaibhav
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引用次数: 10

Abstract

Initial stage detection of malaria is very helpful in reducing the human death rate. Generally manual diagnosis is used for detection of malaria using 100 × to 600 × microscope but time required for this process is very large and false report chances are more, which results in death of a person. A high speed, low cost and result accurate biosensor plays a key role in diagnosis of malaria. When malaria parasite's infects RBC's, its mechanical, physical and biochemical structure will get modified results in change of refractive index of RBC. Therefore, refractive index varies from normal RBC to infected RBC. This factor is utilized to design the photonic biosensor for detection of malaria in humans and it is label free detection method. The proposed photonic crystal sensor has 10 µm × 10 µm dimension. The extracted sample is placed in the sensor holes and light beam with a wavelength of 1.85-1.95 µm is fed inside the bio sensor. If the malaria parasites are present then there will be variation in RI from normal sample results in the wavelength shift. FDTD technique is used for the simulation of this model. Quality factor achieved for this design is 214 and the sensitivity for change in refractive index is 225 nm/RIU.

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一种利用光子生物传感器检测红细胞中疟疾的新计算方法。
疟疾的初期检测对降低人类死亡率非常有帮助。疟疾的检测一般采用人工诊断,使用100 × ~ 600 ×的显微镜进行检测,但这一过程所需的时间非常长,漏报的几率也较大,导致人员死亡。一种高速、低成本、结果准确的生物传感器在疟疾诊断中发挥着关键作用。疟原虫感染红细胞后,其机械、物理和生化结构都会发生改变,红细胞的折射率也会发生变化。因此,正常红细胞和感染红细胞的折射率不同。利用该因子设计了用于人疟疾检测的光子生物传感器,是一种无标签检测方法。所提出的光子晶体传感器尺寸为10 μ m × 10 μ m。将提取的样品置于传感器孔中,将波长为1.85-1.95µm的光束送入生物传感器内。如果存在疟疾寄生虫,则RI在波长移位方面将与正常样品结果有所不同。利用时域有限差分技术对该模型进行了仿真。该设计的质量因子为214,折射率变化的灵敏度为225 nm/RIU。
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