An approach to detect and mitigate neural disorders using swarm of bionanomachines

Ahmed O. Nasif, M. Mahfuz
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Abstract

In this paper, we focus on the possibilities of using bionanomachines to treat neuronal (brain) disorders. Neuronal networks in the brain are an excellent example of nanonetworks that control all major functions of a human body, thereby offering a sound physical and mental health of a human being. In the brain, approximately one hundred billion neurons are connected three-dimensionally with other neurons in order to form immensely complex neuronal nanonetworks. Therefore, there are trillions of connections that exist among neurons in the brain. When neurons get damaged due to disease or accidents, they affect specific human body functions. It has been found that bionanomachines could interact with neurons in brain nanonetworks and thus help treat brain disorders. This paper describes an approach to detect and remedy neural disorders using bionanomachines. We propose the deployment of a swarm of bionanomachines in the brain that can collectively detect synaptic dysfunctions and mitigate it by injecting excitatory therein. Combinatorial enumeration is explored as a potential tool that can allow us to characterize the requirements on detection capabilities of a single nanobiomachine, as well as of the swarm.
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一种利用生物反常机器群检测和减轻神经疾病的方法
在本文中,我们关注的是使用生物异常机器治疗神经元(大脑)疾病的可能性。大脑中的神经网络是纳米网络的一个很好的例子,纳米网络控制着人体的所有主要功能,从而为人类提供了良好的身心健康。在大脑中,大约有一千亿个神经元以三维方式与其他神经元相连,以形成极其复杂的神经元纳米网络。因此,大脑中的神经元之间存在着数万亿个连接。当神经元因疾病或事故而受损时,它们会影响人体的特定功能。研究发现,生物纳米机器可以与大脑纳米网络中的神经元相互作用,从而有助于治疗大脑疾病。本文描述了一种利用生物反常机器检测和治疗神经疾病的方法。我们建议在大脑中部署一群生物异常机器,这些机器可以集体检测突触功能障碍,并通过在其中注射兴奋剂来减轻突触功能障碍。组合枚举作为一种潜在的工具被探索,它可以让我们表征对单个纳米生物机器的检测能力的要求,以及群体。
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