Advances in Functional Spine Neuroimaging

Feroze Mohamed, Chris Conklin, S. Saksena, M. Alizadeh, D. Middleton
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Abstract

Several imaging modalities are currently being used to obtain diagnostic information in patient with spinal cord injuries. Among them, magnetic resonance imaging, computed tomography myelography, and plain radiography are the most widely used. Magnetic resonance imaging or MRI is a non-invasive imaging method that uses magnetic fields and radio frequency (RF) waves and provides soft tissue contrast of the spinal cord and surrounding tissues within the spinal canal. On the other hand, computed tomography or CT is based on x-rays, to provide excellent bone contrast, and is the first line of diagnostic imaging performed following a traumatic injury in both adults and kids to evaluate for fractures and spinal subluxation. Subsequently, MRI is performed to evaluate for the presence of spinal cord compression, spinal cord edema and/or hemorrhage, epidural/subdural hemorrhage, prevertebral edema, and ligamentous injury. Although still not widely available, in addition to providing good structural information, MRI has evolved in the recent years to provide functional characteristics of the spinal cord. These include information such as diffusion of the water molecules within the spinal cord providing functional information of white matter based on diffusion tensor imaging (DTI), and neuronal activation sites within the gray matter of the spinal cord based on Blood oxygenation level dependant (BOLD) imaging. In our center at Jefferson we are utilizing these functional neuroimaging biomarkers to potentially help us to understand the mechanisms of spinal cord injury (SCI) as well as guide and track changes of new therapeutic procedures. In the following sections we will discuss the methodologies underlying these techniques.
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功能性脊柱神经影像学研究进展
几种成像方式目前被用于获得脊髓损伤患者的诊断信息。其中,磁共振成像、计算机断层脊髓造影和x线平片应用最为广泛。磁共振成像(MRI)是一种非侵入性成像方法,它利用磁场和射频(RF)波,提供脊髓和椎管内周围组织的软组织对比。另一方面,计算机断层扫描或CT是基于x射线的,可以提供出色的骨骼对比,是成人和儿童创伤性损伤后评估骨折和脊柱半脱位的第一线诊断成像。随后,进行MRI评估脊髓压迫、脊髓水肿和/或出血、硬膜外/硬膜下出血、椎前水肿和韧带损伤的存在。尽管还没有广泛应用,但除了提供良好的结构信息外,MRI近年来已经发展到提供脊髓的功能特征。这些信息包括基于弥散张量成像(DTI)的脊髓内水分子的扩散,提供白质的功能信息,以及基于血氧水平依赖(BOLD)成像的脊髓灰质内的神经元激活位点。在我们杰弗逊中心,我们正在利用这些功能性神经成像生物标志物来帮助我们了解脊髓损伤(SCI)的机制,并指导和跟踪新的治疗方法的变化。在下面的部分中,我们将讨论这些技术的基础方法。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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