Yamada Kenichi, Yoshimura Junichi, Watanabe Masaki, Suzuki Kiyotaka
Center for Integrated Human Brain Science, Brain Research Institute, Niigata University, Niigata, Japan.
Department of Neurosurgery, Brain Research Institute, Niigata University, Niigata, Japan.
J Clin Imaging Sci. 2021 Dec 2;11:65. doi: 10.25259/JCIS_185_2021. eCollection 2021.
Ultra-high field magnetic resonance imaging (MRI) has been introduced for use in pediatric developmental neurology. While higher magnetic fields have certain advantages, optimized techniques with specific considerations are required to ensure rational and safe use in children and those with pediatric neurological disorders (PNDs). Here, we summarize our initial experience with clinical translational studies that utilized 7 tesla (T)-MRI in the fields of developmental neurology. T2-reversed images and three-dimensional anisotropy contrast imaging enabled the depiction of targeted pathological brain structures with better spatial resolution. Diffusion imaging and susceptibility-weighted imaging enabled visualization of intracortical, subcortical, and intratumoral microstructures within highly limited scan times appropriate for patients with PNDs. 7T-MRI appears to have significant potential to enhance the depiction of the structural and functional properties of the brain, particularly those associated with atypical brain development.
超高场磁共振成像(MRI)已被引入用于儿科发育神经学。虽然更高的磁场有某些优势,但需要采用特定考虑因素的优化技术,以确保在儿童和患有儿科神经系统疾病(PND)的患者中合理且安全地使用。在此,我们总结了在发育神经学领域利用7特斯拉(T)-MRI进行临床转化研究的初步经验。T2反转图像和三维各向异性对比成像能够以更好的空间分辨率描绘目标病理性脑结构。扩散成像和磁敏感加权成像能够在适合PND患者的极有限扫描时间内可视化皮质内、皮质下和肿瘤内的微观结构。7T-MRI似乎具有显著潜力,可增强对大脑结构和功能特性的描绘,特别是那些与非典型脑发育相关的特性。