图谱引导的大脑投射束:从感兴趣区到脑投影三维渲染。

IF 1.8 3区 医学 Q2 ANATOMY & MORPHOLOGY
Corentin Dauleac, Patrick Mertens, Carole Frindel, Timothée Jacquesson, François Cotton
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引用次数: 0

摘要

弥散张量成像(DTI)的应用在过去二十年有了长足的发展,尤其是用于术前手术规划的关联束束线图的发展。然而,投射束很难相互区分,而且束成像研究未能重建这些从脊髓上升/下降到脊髓的路径。本研究提出了一种专为投射束束描术设计的感兴趣区图集(ROI)。这项前瞻性研究纳入了 49 名健康受试者。大脑 DTI 由同一台 3 T MRI 扫描仪采集,有 32 个扩散方向。使用 FSL 软件包校正畸变。使用前会(AC)-后会(PC)线在以下地标上绘制 ROI:皮质脊髓束的金字塔、红核的中尾部(红脊髓束)、桥脑网状核(皮质脊髓束)、小脑上梗和小脑下梗(分别为脊髓小脑束的前部和后部)、腕核和楔核(背柱)以及腹柱外侧核(脊髓束)。纤维追踪使用 DSI Studio 软件的确定性算法进行。根据 AC-PC 线给出了每个束的 ROI 坐标。对每个束进行分束成像,可进行三维渲染,并比较不同束之间的追踪指标。本研究报告为每个投影束的切面成像准确设计了特定的 ROI。这将成为区分脊髓水平投射束的有用工具。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Atlas-guided brain projection tracts: From regions of interest to tractography 3D rendering.

The use of diffusion tensor imaging (DTI) has seen significant development over the last two decades, in particular with the development of the tractography of association tracts for preoperative planning of surgery. However, projection tracts are difficult to differentiate from one another and tractography studies have failed to reconstruct these ascending/descending pathways from/to the spinal cord. The present study proposes an atlas of regions of interest (ROIs) designed specifically for projection tracts tractography. Forty-nine healthy subjects were included in this prospective study. Brain DTI was acquired using the same 3 T MRI scanner, with 32 diffusion directions. Distortions were corrected using the FSL software package. ROIs were drawn using the anterior commissure (AC)-posterior commissure (PC) line on the following landmarks: the pyramid for the corticospinal tract, the medio-caudal part of the red nucleus for the rubrospinal tract, the pontine reticular nucleus for corticoreticular tract, the superior and inferior cerebellar peduncles for, respectively, the anterior and posterior spinocerebellar tract, the gracilis and cuneatus nucleus for the dorsal columns, and the ventro-posterolateral nucleus for the spinothalamic tract. Fiber tracking was performed using a deterministic algorithm using DSI Studio software. ROI coordinates, according to AC-PC line, were given for each tract. Tractography was obtained for each tract, allowing tridimensional rendering and comparison of tracking metrics between tracts. The present study reports the accurate design of specific ROIs for tractography of each projection tract. This could be a useful tool in order to differentiate projection tracts at the spinal cord level.

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来源期刊
Journal of Anatomy
Journal of Anatomy 医学-解剖学与形态学
CiteScore
4.80
自引率
8.30%
发文量
183
审稿时长
4-8 weeks
期刊介绍: Journal of Anatomy is an international peer-reviewed journal sponsored by the Anatomical Society. The journal publishes original papers, invited review articles and book reviews. Its main focus is to understand anatomy through an analysis of structure, function, development and evolution. Priority will be given to studies of that clearly articulate their relevance to the anatomical community. Focal areas include: experimental studies, contributions based on molecular and cell biology and on the application of modern imaging techniques and papers with novel methods or synthetic perspective on an anatomical system. Studies that are essentially descriptive anatomy are appropriate only if they communicate clearly a broader functional or evolutionary significance. You must clearly state the broader implications of your work in the abstract. We particularly welcome submissions in the following areas: Cell biology and tissue architecture Comparative functional morphology Developmental biology Evolutionary developmental biology Evolutionary morphology Functional human anatomy Integrative vertebrate paleontology Methodological innovations in anatomical research Musculoskeletal system Neuroanatomy and neurodegeneration Significant advances in anatomical education.
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