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Study on the Biochemical Nanoparticles for Bio-imaging and Molecular Diagnostics of Alzheimer's Disease

机译:用于阿尔茨海默氏病生物成像和分子诊断的生化纳米颗粒的研究

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Alzheimer's disease (AD) is characterized by its step by step deterioration with periods of stability, punctuated with rapid decline in cognitive function. Such deterioration involves the loss of neurons and synapses in the cerebral cortex and certain subcortical regions of the brain.This loss causes gross atrophy of the affected regions; which includes degeneration of the temporal and parietal lobe, parts of the frontal cortex and cingulate gyrus, and eventually a reduction in the respective regions of the brain.In this paper, computational biomedical simulation technology was provided as an alternative method for a solution of AD treatment. A potential solution in applications-related nanotechnology was presented using nano fullerene complexes and EDTA molecules due to their ability to virtually attach large quantities of proton H. Multiple pathways through oxidative stress can produce cell injury in the human brain.A free-radical chain reaction capable of propagating in space is the major oxidative reaction in bio-membranes in the human brain’s nerve system. To find active energy, stability, and efficiency, various clusters of compounds were created and optimization configuration energy was collected. While there was a trend of increase in enthalpy with increasing the chain of the molecules, variation of energy was also observed. The goal of these studies on the role of oxidative stress that plays in the degeneration of nerve cells is how the nano-scaled chemical antioxidants may be useful in the treatment of AD.
机译:阿尔茨海默氏病(AD)的特征在于其逐步恶化并持续一段时间,其间认知功能迅速下降。这种恶化涉及大脑皮层和大脑某些皮质下区域的神经元和突触的丧失。其中包括颞叶和顶叶的退化,额叶皮层和扣带回的部分变性,以及最终大脑各个区域的缩小。治疗。由于纳米富勒烯络合物和EDTA分子实际上可以附着大量质子H的能力,因此提出了与应用相关的纳米技术的潜在解决方案。通过氧化应激的多种途径可以在人脑中产生细胞损伤。能够在太空中传播的是人脑神经系统生物膜中的主要氧化反应。为了找到有功能量,稳定性和效率,创建了各种化合物簇,并收集了优化的构型能量。尽管焓随着分子链的增加而增加,但也观察到了能量的变化。这些关于氧化应激在神经细胞变性中发挥作用的研究的目标是,纳米级化学抗氧化剂如何可用于治疗AD。

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